Intelligent building integrated management system and management method thereof

Abstract

An intelligent building integrated management system and management method thereof include a first cloud management system having a project management database, an intelligent building system managed by the first cloud management system, and a second cloud management system connected to the first cloud management system via a conversion interface. The management method includes: the first cloud management system receives data related to buildings managed by the intelligent building system and stores it in the project management database; authorizes the second cloud management system to connect to and access the project management database; accepts access actions from the second cloud management system to the project management database; performs format conversion on the data corresponding to the access actions; and the second cloud management system stores the converted data in an internal demand database.

Description

Technical Field

[0001] The present invention relates to a building system, and in particular to an intelligent building integrated management system and a management method thereof. Background Art

[0002] In recent years, with the development of technologies such as computers, the internet, and big data, various buildings are moving towards intelligence in order to improve the living quality of users.

[0003] Generally speaking, common intelligent building management systems on the market emphasize the integration between independent subsystems (such as access control systems, lighting systems, air conditioning systems, etc.), and provide integrated information through a user-friendly graphical interface. They also provide users with the function of coordinated control (for example, starting the lighting system and air conditioning system simultaneously when returning home) to enhance user convenience.

[0004] However, as the number of construction projects continues to increase, the types of buildings and their associated equipment, communication protocols, control methods, and other conditions that need to be considered are becoming increasingly complex. Existing management systems are becoming increasingly difficult both in terms of functionality and implementation.

[0005] For example, a building might contain multiple subsystems, such as the aforementioned lighting and air conditioning systems. A single project might encompass multiple buildings (e.g., a company's multiple factories in the same region), and a single project manager might need to manage multiple projects simultaneously (e.g., a parent company might own multiple subsidiary buildings across multiple regions, both domestically and internationally). In such situations, existing management systems are clearly inadequate.

[0006] Furthermore, when higher-level users (such as government agencies) need to simultaneously obtain relevant data from different projects or buildings managed by multiple project managers, existing management systems are unable to achieve the goal of real-time data sharing and require significant improvement. Summary of the Invention

[0007] The main purpose of the present invention is to provide an intelligent building integrated management system and management method thereof, which can authorize database access rights to additional cloud management systems at any time to achieve the purpose of real-time data sharing.

[0008] To achieve the above objectives, the intelligent building integrated management system of the present invention includes:

[0009] A first cloud management system having at least a first cloud setting platform and a project management database, wherein the project management database has a first conversion interface and a data conversion service module;

[0010] an intelligent building system connected to and managed by the first cloud management system, wherein relevant data of a building managed by the intelligent building system is stored in the project management database; and

[0011] a second cloud management system having at least a second cloud setting platform and a demand database, wherein the demand database has a second conversion interface;

[0012] The first cloud management system connects to the second conversion interface of the second cloud management system through the first conversion interface, and authorizes the second cloud management system to connect to and access the project management database;

[0013] The first cloud management system converts the format of the data in the project management database through the data conversion service module, so that the second cloud management system stores the converted data in the demand database.

[0014] As described above, the first cloud setting platform accepts external operations to open permissions for one or more projects managed by the first cloud management system, and establishes the second cloud management system based on the opened permissions, wherein at least one of the one or more projects includes the building that the smart building system is responsible for.

[0015] As described above, the second cloud setting platform accepts external operations to request the first cloud management system to modify access permissions for the relevant data of the one or more projects, and the demand database records the access permissions of the second cloud management system for the relevant data of the one or more projects, as well as an analysis rule of the second cloud management system for the data obtained from the project management database.

[0016] As described above, the first cloud setting platform has a project management module for establishing the one or more projects, a building management module for establishing and managing the 3D model of the building, and a device communication management module for defining the communication protocols of multiple devices in the building, wherein the first cloud management system generates a cloud setting file through the first cloud setting platform and synchronizes with the smart building system according to the cloud setting file.

[0017] As described above, the first cloud management system further includes a first network management platform, and the second cloud management system further includes a second network management platform. The first network management platform provides a first real-time information display module and a first warning module through a first network front end, and the second network management platform provides a second real-time information display module and a second warning module through a second network front end.

[0018] As mentioned above, the project management database is a hierarchical database and includes:

[0019] a first-level database field for storing building data, wherein the building data at least includes a building name, a building location, and equipment data of a plurality of equipment in the building for which the intelligent building system is responsible;

[0020] a second-tier database field, linked to the first-tier database field, for storing item data of the one or more items; and

[0021] A third-level database field is linked to the second-level database field and is used to store project manager data of the project manager of the one or more projects.

[0022] As described above, the project management database records a device template library, which accepts a user to set the specifications, properties, communication interface and data transmission format of an unknown device to add the device data of the unknown device to the first-level database field.

[0023] As described above, the intelligent building system has a local setting platform for setting the intelligent building system and the multiple devices in the building according to the cloud setting file, a local data processor for performing statistics and analysis on the data collected from the building, a communication converter for establishing communication between the intelligent building system and the building, and a data manager for recording a local setting file of the intelligent building system and the historical records of the building.

[0024] As described above, the local setting platform has a setting file generating unit and at least one submodule. The setting file generating unit is remotely controlled or offline controlled to generate the local setting file. The at least one submodule is activated under the control of the first cloud management system.

[0025] As described above, it further includes an intelligent building kit, through which the intelligent building system connects the multiple devices in the building. The intelligent building kit receives the ground setting file from the intelligent building system and obtains device data of the multiple devices at regular intervals based on the ground setting file.

[0026] As described above, the local data processor has a data receiving unit for receiving the device data uploaded by the smart building kit, a command processing unit for receiving a command request from a third network front end, and a cloud interface connection unit for uploading the device data to the first cloud management system.

[0027] As described above, the smart building kit includes an edge computing module, which performs corresponding smart computing analysis functions according to the device properties of the multiple connected devices and uploads the analyzed data to the smart building system.

[0028] To achieve the above objectives, the intelligent building integrated management method of the present invention is applied to the intelligent building integrated management system described above, and includes:

[0029] a) the first cloud management system receives the building-related data from the intelligent building system and stores it in the project management database;

[0030] b) connecting the first cloud management system to the second conversion interface of the second cloud management system through the first conversion interface;

[0031] c) the first cloud management system authorizes the second cloud management system to connect to and access the project management database;

[0032] d) the first cloud management system accepting an access action from the second cloud management system to the project management database;

[0033] e) the first cloud management system converts the format of the data corresponding to the access action through the data conversion service module; and

[0034] f) The second cloud management system stores the converted data in the demand database.

[0035] As described above, the step a further comprises the following steps:

[0036] a11) The first cloud management system accepts a first external operation through the first cloud setting platform;

[0037] a12) opening access rights to one or more projects managed by the first cloud management system according to the first external operation, wherein at least one of the one or more projects includes the building managed by the smart building system; and

[0038] a13) Establishing the second cloud management system according to the opened access authority.

[0039] As mentioned above, the method further includes the following steps:

[0040] g1) the second cloud management system accepts a second external operation through the second cloud configuration platform, and requests the first cloud management system to modify the access permissions of the one or more projects based on the second external operation;

[0041] g2) recording, through the demand database, the access rights of the second cloud management system to the one or more projects; and

[0042] g3) Recording, through the demand database, an analysis rule of the second cloud management system for the data obtained from the project management database.

[0043] As described above, the step a further comprises the following steps:

[0044] a21) configuring the one or more items and configuring communication protocols for multiple devices in the building through the first cloud configuration platform, and generating a cloud configuration file; and

[0045] a22) Exporting the cloud configuration file to synchronize the first cloud management system with the intelligent building system.

[0046] As described above, the step a further comprises the following steps:

[0047] a31) The intelligent building system receives the cloud configuration file from the first cloud management system;

[0048] a32) enabling one or more corresponding services based on the cloud configuration file; and

[0049] a33) configuring the intelligent building system based on the cloud configuration file and generating a local configuration file.

[0050] As described above, the smart building system connects the multiple devices in the building through a smart building kit, and step a33) also includes setting a kit role of the smart building kit based on the properties of the multiple devices connected to the smart building kit, and the local setting file records the kit role.

[0051] As described above, the step a further comprises the following steps:

[0052] a41) The intelligent building system publishes the local terminal setting file;

[0053] a42) the intelligent building suite activates a corresponding intelligent computing and analysis function based on the local configuration file; and

[0054] a43) The smart building kit periodically obtains device data of the multiple devices based on the local setting file, analyzes the device data through the intelligent computing and analysis function, and uploads the analyzed data to the smart building system.

[0055] As described above, the step a further comprises the following steps:

[0056] a51) The intelligent building system publishes the local terminal setting file;

[0057] a52) a network front-end receives the local terminal setting file, and displays a corresponding screen and activates corresponding functions according to the local terminal setting file; and

[0058] a53) A mobile phone front end receives the local setting file, displays a corresponding screen and activates a corresponding function according to the local setting file.

[0059] The technical effect that can be achieved by the present invention in comparison with related technologies is that users can establish a second cloud management system on top of the first cloud management system at any time based on actual needs, and authorize the second cloud management system to access the corresponding data in the database of the first cloud management system, thereby quickly achieving the purpose of data sharing.

[0060] Through the technical means of this invention, relevant personnel can query the required data through the second cloud management system and perform necessary analysis on the obtained data. Moreover, after the data query and analysis are completed, the user can shut down the second cloud management system at any time without affecting the existing integrated management system architecture, thereby ensuring both scalability and security of the integrated management system.

[0061] The present invention will be described in detail below with reference to the accompanying drawings and specific embodiments, but this does not limit the present invention. BRIEF DESCRIPTION OF THE DRAWINGS

[0062] Figure 1 This is a first specific embodiment of the system architecture diagram of the present invention;

[0063] Figure 2 This is a second specific embodiment of the system architecture diagram of the present invention;

[0064] Figure 3 This is a third specific embodiment of the system architecture diagram of the present invention;

[0065] Figure 4 A first specific embodiment of a schematic diagram of a project management database of the present invention;

[0066] Figure 5 This is the first specific embodiment of the management flow chart of the present invention;

[0067] Figure 6 A first specific embodiment of a flow chart is established for the system of the present invention;

[0068] Figure 7 The first embodiment of the setting flow chart of the present invention;

[0069] Wherein, the reference numerals:

[0070] 1: The first cloud management system;

[0071] 11: First cloud setting platform;

[0072] 12: Project management database;

[0073] 121: First level database field;

[0074] 1211: building ontology data;

[0075] 1212: device data;

[0076] 122: Second level database field;

[0077] 1221: Project data;

[0078] 123: third-level database field;

[0079] 1231: Project manager data;

[0080] 13: First network management platform;

[0081] 14: Cloud interface connection unit;

[0082] 2: Intelligent building system;

[0083] 21: Ground setting platform;

[0084] 22: Ground data processor;

[0085] 23: Communication converter;

[0086] 24: Data manager;

[0087] 3: Buildings;

[0088] 4: Second cloud management system;

[0089] 41: Second cloud setting platform;

[0090] 42: Requirements database;

[0091] 43: Second network management platform;

[0092] 51: Network front desk;

[0093] 52: mobile phone front desk;

[0094] 6: Smart building kit;

[0095] 7: Equipment;

[0096] S10-S20: management steps;

[0097] S30-S42: Establishment step;

[0098] S50~S68: Setting steps. DETAILED DESCRIPTION

[0099] The structural principle and working principle of the present invention are described in detail below with reference to the accompanying drawings:

[0100] First refer to Figure 1 , is the first specific embodiment of the system architecture diagram of the present invention. Figure 1 As shown, the present invention provides an intelligent building integrated management system (hereinafter referred to as the integrated management system), which includes at least a first cloud management system 1, and one or more intelligent building systems 2 connected to the first cloud management system 1 and managed by the first cloud management system 1, wherein each intelligent building system 2 manages a building 3 respectively.

[0101] like Figure 1 As shown, each smart building system 2 in the present invention manages a building 3. The first cloud management system 1 is a virtual system established in the cloud (e.g., Amazon Web Services (AWS)) to manage one or more projects. In one embodiment, each project includes at least one building 3 managed by all smart building systems 2 connected to the first cloud management system 1.

[0102] In one embodiment of the present invention, when users of the integrated management system have special needs, they can control the first cloud management system 1 to perform a bottom-up data authorization operation, thereby further establishing one or more second cloud management systems 4 on the first cloud management system 1. Through the establishment and use of the second cloud management system 4, relevant parties (such as government agencies, investors, etc.) can query the relevant data of authorized specific projects / specific buildings 3, as well as the analysis results of this data based on specific analysis strategies, without affecting the existing integrated management system architecture.

[0103] In one embodiment, the second cloud management system 4 can be established in the same cloud space as the first cloud management system 1. In another embodiment, the second cloud management system 4 can be established in a different cloud space than the first cloud management system 1, but this is not limited.

[0104] Through the above technical means, the present invention facilitates users to achieve the purpose of cross-project and cross-building data analysis and sharing.

[0105] Please also see Figure 2 , is the second specific embodiment of the system architecture diagram of the present invention. Figure 2As shown, the first cloud management system 1 primarily comprises a first cloud configuration platform 11 and a project management database 12, wherein the project management database 12 has a first conversion interface (not shown). In one embodiment, the first cloud management system 1 is a virtual system established in the cloud space, and the first cloud configuration platform 11 and the project management database 12 are virtual units implemented in software, but this is not limiting.

[0106] As previously described, the first cloud management system 1 manages at least one project through user configuration, where each project includes one or more buildings 3. In this embodiment, the first cloud management system 1 further includes a cloud interface connection unit 14. This connects the first cloud management system 1 to one or more underlying intelligent building systems 2, each of which is responsible for a building 3 within the project.

[0107] More specifically, each intelligent building system 2 actually receives device data from multiple devices within a building 3, and the first cloud management system 1 receives the device data uploaded by each intelligent building system 2 via the cloud interface connection unit 14. In the present invention, each intelligent building system 2 stores the relevant data of the building 3 it is responsible for in the project management database 12 of the first cloud management system 1 (described in detail later).

[0108] like Figure 2 As shown, the second cloud management system 4 primarily comprises a second cloud configuration platform 41 and a demand database 42, wherein the demand database 42 has a second conversion interface (not shown). In one embodiment, the second cloud management system 4 is a virtual system established in the cloud space, and the second cloud configuration platform 41 and demand database 42 are virtual units implemented in software, but this is not a limitation.

[0109] In the present invention, the first cloud management system 1 can accept external operations from users and set permissions to be opened based on the external operations. The first cloud management system 1 can directly establish the second cloud management system 4 online based on the contents of the opened permissions.

[0110] Specifically, a user (e.g., a project manager) can remotely connect to the first cloud management system 1 via a computer, smartphone, or server over a network and, using a graphical user interface (GUI), perform external operations on the first cloud management system 1 to control the permissions granted by the first cloud management system 1 to one or more projects managed by the first cloud management system based on the user's purpose. In one embodiment, the permissions may include, but are not limited to, access rights to data related to a specific project or building 3, as well as the access period for the data.

[0111] After the user completes the permission settings, he or she can trigger a cloud management system creation button (not shown) on the first cloud management system 1 through the GUI. When the button is triggered, the first cloud management system 1 can establish the second cloud management system 4 in the cloud in real time based on the permission settings set by the user.

[0112] Based on the above-mentioned established relationship, the first cloud management system 1 can connect to the second conversion interface of the second cloud management system 4 through the first conversion interface immediately after the second cloud management system 4 is established, and authorize the second cloud management system 4 to connect to the project management database 12, so that the second cloud management system 4 can access the data in the project management database 12 within the authorized scope.

[0113] In one embodiment, after the button is triggered, the first cloud management system 1 creates a Docker image file (Image) based on the authorization content set by the user, whereby the cloud space (such as the aforementioned AWS) can execute this image file to establish the above-mentioned second cloud management system 4 with the specified content.

[0114] It's worth noting that the user of the first cloud management system 1 in the present invention may be a project manager (e.g., a head of a head office), while the user of the second cloud management system 1 may be a relevant individual with a specific purpose (e.g., a government agency with cross-project / cross-building oversight responsibilities). Based on the work environments of different users, the project management database 12 and the requirements database 42 may employ different data structures. To this end, the project management database 12 of the present invention also includes a data conversion service module (not shown).

[0115] In one embodiment, when the first cloud management system 1 receives an access action from the second cloud management system 4, it will first convert the format of the object data of the access action (for example, the lighting equipment data of building A, the air-conditioning equipment data of building B, etc.) through the data conversion service module, and then enable the second cloud management system 4 to obtain the converted data. The second cloud management system 4 can store the converted data in the internal demand database 42 to complete data sharing.

[0116] It's worth noting that the first cloud management system 1 may record the application program interface (API) used by the second cloud management system 4. When performing the aforementioned format conversion, the data conversion service module primarily follows the API of the second cloud management system 4 to convert the data into a format acceptable to the second cloud management system 4. However, the above is merely one specific implementation example of the present invention and is not intended to be limiting.

[0117] In the present invention, the second cloud management system 4 does not directly connect to or manage any project / building. Instead, it only accesses authorized data related to specific projects / buildings through the first cloud management system 4, analyzes the acquired data, and generates relevant reports. Specifically, the establishment and use of the second cloud management system 4 facilitates relevant personnel to obtain and observe data related to specific projects / buildings (including raw data, analyzed data, and reports) in real time, but does not involve direct control or management of these projects / buildings.

[0118] Through the above-described technical solution, the present invention effectively distinguishes the responsibilities and powers of the first cloud management system 1 and the second cloud management system 4. Once the relevant personnel complete their assigned tasks, the integrated management system of the present invention can shut down the second cloud management system 4 at any time (i.e., revoke the authorization of the first cloud management system 1) without affecting the existing system architecture, thereby ensuring both the scalability and security of the integrated management system.

[0119] As described above, the second cloud management system 4 in the present invention is directly established based on the permissions opened by the first cloud management system 1. Therefore, the second cloud management system 4 can only access the project management database 12 of the first cloud management system 1 based on the preset permissions to obtain corresponding data (such as energy-related data of the first project, lighting-related data of building A in the second project, etc.).

[0120] In another embodiment, after being established, the second cloud management system 4 can accept external operations from users (such as government agencies) through the second cloud setting platform 41 to request the first cloud management system 1 to modify its open permissions, that is, to modify the access permissions of the second cloud management system 4 to the project management database 12.

[0121] In this embodiment, the second cloud management system 4 can primarily store its access permissions to the project management database 12 through the demand database 42, and store its analysis rules for data obtained from the project management database 12. In one embodiment, the analysis rules may include, but are not limited to, the analysis algorithm used, the analysis type, the analysis time point, and the actions to be performed after the analysis.

[0122] When accessing data from the project management database 12, the second cloud management system 4 can only issue corresponding requests to the first cloud management system 4 based on the access permissions. Furthermore, when performing data analysis, the second cloud management system 4 can only perform the necessary analysis on the data retrieved from the project management database 12 based on the analysis rules. Through the above-described technical means, the present invention allows users to easily control the establishment and use of the second cloud management system 4.

[0123] In the present invention, the first cloud setting platform 11 of the first cloud management system 1 may include a project management module, a building management module, and a device communication management module (not shown), but is not limited thereto.

[0124] The project management module can accept external operations to establish one or more projects managed by the first cloud management system 1. The building management module can accept external operations to import, create, and manage floor plans and 3D models of one or more buildings 3 in each project (for example, providing Building Information Modeling (BIM) file conversion services or managing converted BIM models). The device management module can accept external operations to define the communication protocols of various devices that may be present in each building 3.

[0125] It is worth noting that since the first cloud management system 1 is hosted in the cloud, when the same or different users create different projects or configure different buildings 3, they can directly reference the device data (e.g., communication protocols) already defined in the first cloud management system 1. This allows the integrated management system of the present invention to effectively save users the time and cost of repeatedly creating device data for the same or similar devices.

[0126] After completing the aforementioned actions (e.g., establishing the second cloud management system 4 and defining device data), the first cloud management system 1 can generate a corresponding cloud configuration file based on the actions. In the present invention, the first cloud management system 1 can publish the generated cloud configuration file to one or more connected smart building systems 2, thereby achieving synchronization with the smart building systems 2 based on the cloud configuration file.

[0127] As previously described, the intelligent building system 2 manages a single building 3, while the first cloud management system 1 manages one or more projects encompassing one or more buildings 3. In other words, the first cloud management system 1 is superior to the intelligent building system 2. Therefore, when the intelligent building system 2 receives the cloud configuration file published by the first cloud management system 1, its configuration is subject to the constraints of the cloud configuration file. Furthermore, because the cloud configuration file already contains most of the configuration parameters (such as the communication protocols for various devices), users do not need to configure these parameters separately in the intelligent building system 2, effectively saving setup time.

[0128] like Figure 2 As shown, the first cloud management system 1 further includes a first network management platform 13, and the second cloud management system 4 further includes a second network management platform 43. In this embodiment, the first network management platform 13 can provide a first real-time information display module and a first warning module through a first network front end (or a first mobile phone front end), and the second network management platform 43 can provide a second real-time information display module and a second warning module through a second network front end (or a second mobile phone front end).

[0129] In the present invention, the first cloud management system 1 is used to manage one or more projects. Users can actively query information related to one or more projects through the first real-time information display module. If a problem occurs with any project, users can also passively obtain project-specific alarm information through the first warning module. Conversely, the second cloud management system 4 is used to access and analyze data related to authorized projects. Relevant personnel can actively query information related to authorized projects (including raw and analyzed data) through the second real-time information display module and passively obtain relevant alarm information through the second warning module.

[0130] Please also refer to Figure 3 , which is the third specific embodiment of the system architecture diagram of the present invention. In the present invention, the intelligent building system 2 can be a software system implemented by a physical computer or server, and is used to manage a designated building 3. Figure 3 In the embodiment of FIG, the intelligent building system 2 includes at least a local setting platform 21, a local data processor 22, a communication converter 23, and a data manager 24. It is worth noting that the local setting platform 21, the local data processor 22, the communication converter 23, and the data manager 24 can be virtual units implemented by software or physical components implemented by hardware, but this is not limited to the above.

[0131] The local configuration platform 21 receives the cloud configuration file from the first cloud management system 1 and configures the intelligent building system 2 and multiple devices 7 in the assigned building 3 according to the cloud configuration file. Based on the configuration results, the local configuration platform 21 generates corresponding local configuration files (described in detail below). In one embodiment, the local configuration platform 21 is constrained by the cloud configuration file when performing local device configuration operations. Furthermore, the cloud configuration file already contains some settings specific to the local devices (e.g., the communication protocols for each device). Therefore, the local configuration platform 21 only needs to configure parameters not included in the cloud configuration file.

[0132] For example, the local configuration platform 21 can accept external user operations via a network or physical line to configure the relevant information displayed by the web front end 51 or mobile front end 52 connected to the intelligent building system 2. For another example, the local configuration platform 21 can configure the suite role of one or more intelligent building suites 6 connected to the intelligent building system 2 through external operations. However, the above are only some specific implementation examples of the present invention and are not limited to the above.

[0133] The local data processor 22 is used to collect and analyze data collected from the buildings 3 it is responsible for. Specifically, the intelligent building system 2 primarily connects to multiple devices 7 in the buildings 3 it is responsible for through one or more intelligent kits 6 and collects feedback information from these devices 7. Furthermore, the intelligent building system 2 uses the local data processor 22 to collect, analyze, and record this feedback information.

[0134] It is worth mentioning that the intelligent building system 2 also processes command requests received from the network front end 51 or the mobile front end 52 (for example, requests to query feedback information or analyze data of a specific device 7) through the ground data processor 22.

[0135] In one embodiment, the intelligent building system 2 may also utilize the local data processor 22 as an interface module with the first cloud management system 1. Specifically, the intelligent building system 2 uses the local data processor 22 to collect and aggregate data uploaded by all connected intelligent building components 6 (e.g., feedback information from the devices 7), upload the data to the first cloud management system 1, and store it in the project management database 12.

[0136] The communication converter 23 is used to establish communication between the intelligent building system 2 and the buildings 3 it is responsible for. In one embodiment, the communication converter 23 can be implemented as a Message Queuing Telemetry Transport (MQTT Broker) such as, but not limited to, standard Mosquitto 1.5.4. The intelligent building system 2 establishes subscription rules through the communication converter 23 to communicate with various components, including the intelligent building suite 6, the local configuration platform 21, the network frontend 51, and the mobile frontend 52.

[0137] The data manager 24 is used to store data related to the intelligent building system 2 and may primarily include a real-time database and a historical database (not shown). Specifically, the real-time database may be, for example, a MySQL database, used to record relatively real-time data such as the cloud-based configuration files and / or local configuration files. The historical database may be, for example, a MongoDB database, used to record historical records of the intelligent building system 2, each intelligent building kit 6, and / or each device 7.

[0138] In one embodiment, the intelligent building system 2 can back up and restore the cloud configuration files and / or local configuration files through the data manager 24. In this way, the intelligent building system 2 can achieve database redundancy through the data manager 24.

[0139] It is worth mentioning that the local setting platform 21 includes a setting file generation unit (not shown). In the present invention, the local setting platform 21 primarily receives remote or offline control via the setting file generation unit to perform corresponding setting operations on components such as the local data processor 22, the intelligent building suite 6, the network front end 51, and the mobile front end 52, and generates the local setting file based on the setting results.

[0140] The local setting platform 21 may also have at least one submodule (not shown in the figure), which is enabled or disabled under the control of the first cloud management system 1 (for example, the submodule is set by publishing a cloud setting file), and the read and write permissions of the submodule are determined based on the content of the above-mentioned local setting file. For example, the submodule may be a plane information module, a BIM model module, a statistical chart module, an alarm notification module, an equipment supervision module, etc. that provide corresponding information display functions through the network front end 51 or the mobile phone front end 52. If these submodules are enabled and have read and write permissions to the database, the user can connect to and use these submodules through the network front end 51 or the mobile phone front end 52, and then obtain the relevant information that these submodules can provide.

[0141] like Figure 1 as well as Figure 3 As shown, the intelligent building system 2 of the present invention is primarily responsible for managing at least one building 3, which has multiple devices 7 (such as energy monitoring equipment, lighting equipment, air conditioning equipment, imaging equipment, etc.). The intelligent building system 2 is connected to the multiple devices 7 of different attributes in the building 3 through multiple intelligent building kits 6. In one embodiment, each intelligent building kit 6 receives the local setting file from the connected intelligent building system 2 and periodically obtains device data for the one or more connected devices 7 based on the contents of the local setting file.

[0142] In the present invention, the intelligent building kit 6 is a relay layer between the intelligent building system 2 and the underlying equipment 7, and is a universal connection device.

[0143] Specifically, the smart building kit 6 is pre-installed with various functions, but these functions are not enabled before connecting to the device 7, and it itself does not belong to any specific type. In the present invention, the smart building system 2 determines the kit role of the smart building kit 6 based on the device attributes or type of the device 7 connected to the smart building kit 6 (for example, by writing the kit role into the ground-side setting file). After receiving the ground-side setting file, the smart building kit 6 can set its own kit role based on the contents of the ground-side setting file, and based on the kit role, enable corresponding functions and provide them to one or more connected devices 7. At the same time, it periodically obtains device data / device status based on the properties of the device 7.

[0144] In one embodiment, the ground data processor 22 of the intelligent building system 2 has a data receiving unit for receiving device data uploaded by the intelligent building kit 6, a command processing unit for receiving command requests from the network front end 51 or the mobile phone front end 52, and a cloud interface connection unit (not shown) for uploading the received device data to the first cloud management system 1.

[0145] As previously mentioned, the smart building suite 6 can determine its role based on the device attributes or type of the connected device 7, i.e., it can switch from a general-purpose connection device to a specific type of connection device. Furthermore, the smart building suite 6 includes an edge computing module (not shown) that provides and executes intelligent computing and analysis functions based on the device attributes and types of the multiple connected devices 7. In one embodiment, the smart building suite 6 activates this intelligent computing and analysis function based on the site configuration file.

[0146] In this embodiment, the intelligent building suite 6 periodically acquires device data from connected devices 7, performs corresponding analysis on the data, and then uploads the analysis results to the intelligent building system 2. This not only reduces the computational load of the local data processor 22 within the intelligent building system 2, but also improves the real-time nature of data processing. Furthermore, the intelligent computing and analysis capabilities provided by the intelligent building system 2 can be expanded based on the connected intelligent building suite 6, meeting future user needs arising from evolving industrial technologies.

[0147] See further Figure 4 , which is a schematic diagram of a project management database according to a first embodiment of the present invention. In the present invention, the first cloud management system 1 is located at a higher level, thereby managing one or more projects simultaneously, and the project management database 12 used by the first cloud management system 1 is primarily a hierarchical database.

[0148] like Figure 4 As shown, the project management database 12 is virtually divided into a first-level database field 121, a second-level database field 122, and a third-level database field 123, wherein the second-level database field 122 aggregates all data in the first-level database field 121, and the third-level database field 123 aggregates all data in the second-level database field 122.

[0149] In one embodiment, the first-level database field 121 is primarily used to store building data 1211 and equipment data 1212. The building data 1211 may include various basic information about the building 3 managed by one or more connected intelligent building systems 2, such as the building name and location of the building 3. In another embodiment, the building data 1211 may also include environmental information about the location of the building 3, such as climate records, official regulations, electricity pricing regulations, etc., but this is not limited to these. The equipment data 1212 includes information related to the multiple devices 7 actually installed and used in the building 3, such as the floor location of each device 7, device specifications, operating status, maintenance records, management mechanisms, control logic, abnormality diagnosis criteria, performance analysis methods, etc. However, the above are only some exemplary embodiments of the present invention and are not limited to the above.

[0150] As can be seen from the above description, the first-level database field 121 in the project management database 12 belongs to the building level and is used to store data related to one or more buildings 3 .

[0151] In one embodiment, the second-level database field 122 is mainly linked to the first-level database field 121 and is used to store the project data 122 of the project to which one or more buildings 3 recorded in the first-level database field 121 belong.

[0152] In the present invention, each project can simultaneously manage one or more buildings 3, which are usually geographically close or belong to the same construction plan. The present invention facilitates users to simultaneously manage multiple related buildings 3 by establishing projects, and aggregates the data of these buildings 3 (such as building data 1211 and equipment data 1212) into project data 1221 in the second-level database field 122. This helps the first cloud management system 1 perform statistical analysis across buildings 3 (such as energy efficiency, equipment service life comparison, etc.) and output corresponding improvement suggestions. Furthermore, multiple buildings 3 under the same project can learn from the better control strategies used by other buildings 3 through hierarchical recording, management, and analysis, thereby improving their own performance.

[0153] In one embodiment, the third-tier database field 123 is primarily linked to the second-tier database field 122 and is used to store project manager data 1231 of the project managers of one or more projects recorded in the second-tier database field 122 .

[0154] In the present invention, each project manager may manage multiple projects simultaneously based on his or her position. For example, the project manager may be a property management company that needs to manage multiple construction plans simultaneously, or a head office management unit that owns multiple subsidiary buildings across regions.

[0155] Buildings belonging to different projects may differ from those belonging to the same project in terms of geographic location, climate, and official regulations. When the first cloud management system 1 performs statistics and analysis based on the project manager data 1231 in the third-level database field 123, it can incorporate more variable factors and conduct more complex analysis. In this way, users can obtain comprehensive comparative data from the first cloud management system 1 across different projects and analyze the differences between multiple buildings 3 within different projects.

[0156] In the present invention, the first cloud management system 1 can accept external operations via a GUI to set permissions for accessing all or part of the data in the first-tier database fields 121, the second-tier database fields 122, and the third-tier database fields 123. The second cloud management system 4 is then established based on the permissions granted. Accordingly, during initial operation, the second cloud management system 4 can access all or part of the data in the first-tier database fields 121, the second-tier database fields 122, and the third-tier database fields 123 according to the specified permissions, and can perform corresponding statistics and analysis on the obtained data.

[0157] Through the above-mentioned technical means of the present invention, relevant persons do not need to directly access the project management database 12 in the first cloud management system 1, but can query the relevant data of a specific building 3 and / or a specific project through the second cloud management system 4, which is quite expandable and convenient for users.

[0158] It's worth noting that the project management database 12 also contains a comprehensive and extensive library of equipment templates (not shown). Specifically, users can pre-collect and establish complete data (e.g., specifications, attributes, communication interfaces, data transmission formats, etc.) for each known device 7 potentially used in each building 3, and then construct the equipment template library based on this complete data. In one embodiment, the equipment template library is recorded in the first-level database field 121.

[0159] In addition to known devices 7 (such as devices manufactured and provided by the same manufacturer as the first cloud management system 1, the smart building system 2, and the smart building kit 6), the device template material library can also accept user settings for specifications, properties, communication interfaces, and data transmission formats of one or more unknown devices, so as to add the device data of the unknown devices to the first-level database field 121.

[0160] In the present invention, the device data for each device 7 (including known and unknown devices) is recorded in the first-level database field 121 using a flexible data structure (e.g., by pairing a data tag with a data entry), thereby forming the device template library. When a user operates the intelligent building system 2 via the GUI to configure one or more devices 7 for each building 3, the device data recorded in the device template library can be directly and repeatedly used, eliminating the need for engineers to repeatedly compile device data for multiple devices 7. This significantly reduces the time and cost of configuring the devices 7.

[0161] See further Figure 5 , which is the first specific embodiment of the management flow chart of the present invention. Figure 5 The present invention provides an intelligent building integrated management method (hereinafter referred to as the management method in the specification), which is mainly used for Figures 1 to 3 The integrated management system shown here facilitates users and relevant personnel to manage, compile statistics and analyze data of one or more projects / one or more buildings.

[0162] like Figure 5As shown, the integrated management system of the present invention comprises a first cloud management system 1 receiving data related to a building 3 from an intelligent building system 2 (step S10) and storing the data in a project management database 12. Specifically, the first cloud management system 1 stores the data of the building 3 in a first-level database field 121 of the project management database 12, stores data of projects including multiple buildings 3 in a second-level database field 122, and stores data of project managers who manage multiple projects in a third-level database field 123.

[0163] In the present invention, the first cloud management system 1 connects to the second conversion interface of the demand database 42 of the second cloud management system 4 through the first conversion interface of the project management database 12 (step S12), and authorizes the second cloud management system 4 to connect to and access the project management database 12 (step S14).

[0164] In one embodiment, the second cloud management system 4 determines its access permissions to the data in the project management database 12 when it is established. In another embodiment, after its establishment, the second cloud management system 4 may request the first cloud management system 1 to modify its access permissions to the data in the project management database 12. The access permissions may optionally be recorded in the requirements database 42 of the second cloud management system 4. In step S14, the second cloud management system 4 restricts access to the project management database 12 based on the access permissions recorded in the requirements database 42.

[0165] Next, after the second cloud management system 4 sends a request to the first cloud management system 1, the first cloud management system 1 may accept the second cloud management system 4's access to the project management database 12 (step S16). In one embodiment, the second cloud management system 4 can be configured to access the project management database 12 on a scheduled basis. In another embodiment, the second cloud management system 4 can accept external operations from a user via a user interface (GUI) and access the project management database 12 based on these operations, without limitation.

[0166] After step S16, the first cloud management system 1 converts the data requested by the second cloud management system 4 through the data conversion service module of the project management database 12 (step S18). After step S18, the second cloud management system 4 obtains the converted data and stores it in the demand database 42 (step S20).

[0167] After step S20, the second cloud management system 4 can perform statistics and analysis on the data recorded in the demand database 42 and output the statistics and analysis results through the network front-end. This allows relevant personnel with access rights to the second cloud management system 4 to obtain relevant information about a specific project / building 3 even when they are unable to directly connect to the first cloud management system 1 and / or the intelligent building system 2. This does not require changing the existing integrated management system architecture or compromising the security of the integrated management system.

[0168] Please also see Figure 6 , which is the first specific embodiment of the system establishment flowchart of the present invention. In the present invention, to allow relevant personnel to obtain information about a specific project or building without interfering with the operations of the first cloud management system 1 and the intelligent building system 2, the user can operate the first cloud management system 1 to directly establish a second cloud management system 4 exclusively for the relevant personnel based on their needs.

[0169] like Figure 6 As shown, first, a user can log in to the first cloud management system 1 from the backend, and the first cloud management system 1 can accept external operations from the user through the first cloud configuration platform 11 (step S30). In this embodiment, the external operation refers to the user logging into the backend of the first cloud management system 1 via a remote computer, smartphone, or server and issuing relevant commands to the first cloud configuration platform 11. Based on the external operation, the first cloud management system 1 can grant permissions to one or more projects managed by the first cloud management system 1 (step S32), where each project includes buildings 3 managed by one or more connected intelligent building systems 2.

[0170] After step S32, the first cloud management system 1 can establish a second cloud management system 4 directly on top of the first cloud management system 1 based on the granted permissions (step S34). In the present invention, the relevant person can obtain access permissions to the second cloud management system 4, thereby logging into the backend of the second cloud management system 4 to configure the second cloud management system 4, and can also log into the frontend of the second cloud management system 4 to directly query the required information.

[0171] like Figure 2 As shown, after the second cloud management system 4 is established, it can accept external operations from users through the second cloud setting platform 41 (step S36) to request the first cloud management system 1 to modify the access rights of the second cloud management system 4 to one or more projects (step S38).

[0172] For example, in step S32, the user grants access only to data related to the first project. Therefore, the second cloud management system 4 established by the first cloud management system 1 in step S34 only has access to data related to the first project from the project management database 12. At this point, stakeholders can only obtain statistical and analytical data related to the first project through the second cloud management system 4. If stakeholders have other needs, such as data related to the second project, they can configure the second cloud configuration platform 41 in step S36 to cause the second cloud management system 4 to issue a request to the first cloud management system 1 in step S38 for access to data related to the second project, thereby allowing the first cloud management system 1 to update the second cloud management system 4's access rights to the project management database 12.

[0173] After step S38, the second cloud management system 4 can use the requirements database 42 to record the access permissions currently granted to the first cloud management system 1 for one or more projects for which the second cloud management system 4 is responsible (step S40). Furthermore, the second cloud management system 4 can use the requirements database 42 to record the analysis rules for the data obtained from the project management database 12 (step S42).

[0174] In one embodiment, stakeholders can configure the analysis rules through external operations on the second cloud configuration platform 41. After obtaining the relevant data for the authorized project, the second cloud management system 4 performs the specified analysis based on the analysis rules and outputs the corresponding analysis results. This allows stakeholders to conveniently access the required analysis results directly through the web or mobile front-end of the second cloud management system 4.

[0175] As previously mentioned, the purpose of establishing the second cloud management system 4 of the present invention is to facilitate access to relevant information about a specific project or building. Therefore, before authorizing the second cloud management system 4 to access relevant information from the first cloud management system 1, the configuration procedures for the smart building system 2, smart building suite 6, and devices 7 within the integrated management system must be completed.

[0176] See Figure 7 , is the first specific embodiment of the setting flow chart of the present invention. Figure 2 and Figure 7 As shown, first, the user can log in to the backend of the first cloud management system 1 through a remote computer, smart phone or server to set one or more projects through the first cloud setting platform 11, and set multiple devices 7 that may be included in the building 3, and generate corresponding cloud setting files according to the setting content (step S50).

[0177] Specifically, users can use the first cloud configuration platform 11 to configure which smart building systems 2 (i.e., which buildings 3) are included in each project, and can also configure the device data (e.g., communication protocol) of one or more devices 7 included in each of these buildings 3. As previously described, users can directly select a pre-established device template library from the project management database 12, thereby directly configuring the device data for multiple devices 7 without the need for additional programming code.

[0178] After step S50 , the first cloud management system 1 may export the cloud configuration file to the intelligent building system 2 to achieve synchronization with the intelligent building system 2 (step S52 ).

[0179] After step S52, the smart building system 2 can receive the cloud configuration file from the first cloud management system 1 and enable one or more corresponding services based on the contents of the cloud configuration file (step S54). For example, if the first cloud management system includes building A in the first project in the cloud configuration file, and building A is managed by the smart building system 2, the smart building system 2 can enable specific services related to building A in step S54.

[0180] In addition, the cloud setting file includes data that can be directly applied by the intelligent building system 2 (such as the communication protocols of multiple devices 7 in the building 3 it is responsible for). Therefore, after receiving the cloud setting file, the intelligent building system 2 is constrained by the cloud setting file and configures itself and generates a corresponding local setting file (step S56).

[0181] After step S56, the intelligent building system 2 distributes the local configuration file (step S58). Specifically, the intelligent building system 2 distributes the local configuration file to one or more connected intelligent building kits 6, the network front end 51, and the mobile front end 52, allowing the intelligent building kits 6, the network front end 51, and the mobile front end 52 to perform their own configuration operations based on the contents of the local configuration file.

[0182] In the present invention, the smart building suite 6 is defined as a corresponding type based on the attributes of the connected device 7. Furthermore, the smart building system 2 can set the suite role of the smart building suite 6 based on the type of the smart building suite 6 and record the suite role in a local configuration file. After the smart building system 2 receives the local configuration file, the smart building suite 6 activates the corresponding intelligent computing and analysis function based on the suite role recorded in the local configuration file (step S60).

[0183] For example, smart building system 2 connects to multiple lighting fixtures in building 3 via a first smart building kit. Therefore, the first smart building kit's kit role is defined as a lighting kit in the ground-side configuration file. After receiving the ground-side configuration file, the first smart building kit can activate its built-in light source analysis functions based on the contents of the ground-side configuration file to analyze information such as the usage time, brightness, and energy consumption of each lighting fixture in building 3. For another example, smart building system 2 connects to the air conditioning equipment in building 3 via a second smart building kit. Therefore, the second smart building kit's kit role is defined as an air conditioning kit in the ground-side configuration file. After receiving the ground-side configuration file, the second smart building kit can activate its built-in air conditioning analysis functions based on the contents of the ground-side configuration file to analyze information such as the usage time, temperature, and energy consumption of the air conditioning equipment in building 3.

[0184] However, the above is only one specific implementation example of the present invention, and the present invention is not limited to the above.

[0185] After step S60, the smart building suite 6 periodically retrieves device data from the connected devices 7 based on the local configuration file (step S62), analyzes the device data using the enabled intelligent computing and analysis function, and uploads the analyzed data to the smart building system 2 (step S64). In one embodiment, the smart building system 2 can directly upload the data returned by the smart building suite 6 to the project management database 12 of the first cloud management system 1 for storage. In another embodiment, the smart building system 2 can further analyze the data returned by the smart building suite 6 before uploading and storing the analysis results in the project management database 12 of the first cloud management system 1.

[0186] Furthermore, in step S56, the intelligent building system 2 may also configure the information and presentation method to be presented at the front desk, and record these settings in the local configuration file. After step S58, the network front desk 51 of the intelligent building system 2 may receive the local configuration file and display the corresponding screen and activate the corresponding functions based on the contents of the local configuration file (step S66). Similarly, the mobile front desk 52 of the intelligent building system 2 may also receive the local configuration file and display the corresponding screen and activate the corresponding functions based on the contents of the local configuration file (step S68).

[0187] For example, the web frontend 51 can activate functions such as the BIM model module, financial management module, organizational management module, community management module, and rental management module based on the local configuration file, and display corresponding screens using these functions. For another example, the mobile frontend 52 can activate functions such as the equipment list module, floor plan information module, and statistical chart module (if using a building system application), or functions such as the public facility reservation module, visitor registration module, mail delivery module, and resident repair reporting module (if using a property management application) based on the local configuration file.

[0188] Through the integrated management system and management method of the present invention, in addition to integrating data from different buildings / projects to facilitate users' setting, management and analysis of data, the establishment of a second cloud management system can also enable relevant personnel to obtain the required data at any time, thereby increasing the scalability of the existing building system.

[0189] Of course, the present invention may have many other embodiments. Without departing from the spirit and essence of the present invention, those skilled in the art may make various corresponding changes and modifications based on the present invention, but these corresponding changes and modifications should all fall within the scope of protection of the claims attached to the present invention.

Claims

1. An intelligent building integrated management system, characterized in that: Include: A first cloud management system having at least a first cloud setting platform and a project management database, wherein the project management database has a first conversion interface and a data conversion service module; an intelligent building system connected to and managed by the first cloud management system, wherein relevant data of a building managed by the intelligent building system is stored in the project management database; as well as a second cloud management system having at least a second cloud configuration platform and a demand database, the demand database having a second conversion interface, wherein the first cloud configuration platform accepts external operations to open permissions for one or more projects managed by the first cloud management system, and establishes the second cloud management system based on the opened permissions after a cloud management system establishment button is triggered through a graphical user interface, wherein at least one of the one or more projects includes the building managed by the intelligent building system; The first cloud management system connects to the second conversion interface of the second cloud management system through the first conversion interface, and authorizes the second cloud management system to connect to and access data in the project management database within an authorized scope; When receiving the access action from the second cloud management system, the first cloud management system converts the format of the object data in the project management database through the data conversion service module, so that the second cloud management system stores the converted object data in the demand database.

2. The intelligent building integrated management system according to claim 1, characterized in that: The second cloud setting platform accepts an external operation to request the first cloud management system to modify an access permission of the relevant data of the one or more projects, and the demand database records the access permission of the second cloud management system to the relevant data of the one or more projects, and an analysis rule of the second cloud management system for the data obtained from the project management database.

3. The intelligent building integrated management system according to claim 1, characterized in that: The first cloud setting platform has a project management module for establishing the one or more projects, a building management module for establishing and managing a 3D model of the building, and a device communication management module for defining communication protocols for multiple devices in the building. The first cloud management system generates a cloud setting file through the first cloud setting platform and synchronizes with the smart building system according to the cloud setting file.

4. The intelligent building integrated management system according to claim 1, characterized in that: The first cloud management system further includes a first network management platform, and the second cloud management system further includes a second network management platform. The first network management platform provides a first real-time information display module and a first warning module through a first network front end, and the second network management platform provides a second real-time information display module and a second warning module through a second network front end.

5. The intelligent building integrated management system according to claim 1, characterized in that: The project management database is a hierarchical database and includes: a first-level database field for storing building data, wherein the building data at least includes a building name, a building location, and equipment data of a plurality of equipment in the building for which the intelligent building system is responsible; a second-tier database field, linked to the first-tier database field, for storing item data of the one or more items; and A third-level database field is linked to the second-level database field and is used to store project manager data of the project manager of the one or more projects.

6. The intelligent building integrated management system according to claim 5, characterized in that: The project management database records a device template material library, which accepts a user to set the specifications, properties, communication interface and data transmission format of an unknown device to add the device data of the unknown device to the first-level database field.

7. The intelligent building integrated management system according to any one of claims 1 to 6, characterized in that: The intelligent building system has a local setting platform for configuring the intelligent building system and the multiple devices in the building according to the cloud setting file, a local data processor for performing statistics and analysis on data collected from the building, a communication converter for establishing communication between the intelligent building system and the building, and a data manager for recording a local setting file for the intelligent building system and the historical records of the building.

8. The intelligent building integrated management system according to claim 7, characterized in that: The local setting platform comprises a setting file generating unit and at least one submodule. The setting file generating unit is controlled remotely or offline to generate the local setting file. The at least one submodule is activated under the control of the first cloud management system.

9. The intelligent building integrated management system according to claim 7, characterized in that: The invention further comprises an intelligent building kit, wherein the intelligent building system is connected to the plurality of devices in the building through the intelligent building kit. The intelligent building kit receives the local setting file from the intelligent building system and obtains device data of the plurality of devices at regular intervals based on the local setting file.

10. The intelligent building integrated management system according to claim 9, characterized in that: The local data processor has a data receiving unit for receiving the device data uploaded by the smart building kit, a command processing unit for receiving a command request from a third network front end, and a cloud interface connection unit for uploading the device data to the first cloud management system.

11. The intelligent building integrated management system according to claim 9, characterized in that: The smart building kit includes an edge computing module, which performs corresponding intelligent computing analysis functions according to the device properties of the multiple connected devices and uploads the analyzed data to the smart building system.

12. A management method of an intelligent building integrated management system, which can be implemented by the intelligent building integrated management system according to claim 1, characterized in that: The management approach includes the following steps: a11) the first cloud management system accepts a first external operation through the first cloud configuration platform to grant access rights to one or more projects managed by the first cloud management system; a12) after a cloud management system creation button is triggered through a graphical user interface, establishing the second cloud management system according to the contents of the opened access rights, wherein at least one of the one or more projects includes the building managed by the intelligent building system; a) the first cloud management system receives the building-related data from the intelligent building system and stores it in the project management database; b) connecting the first cloud management system to the second conversion interface of the second cloud management system through the first conversion interface; c) the first cloud management system authorizes the second cloud management system to connect to and access data in the project management database within the scope of authorization; d) the first cloud management system accepting an access action from the second cloud management system to the project management database; e) the first cloud management system converts the format of the data corresponding to the access action through the data conversion service module; and f) The second cloud management system stores the converted data in the demand database.

13. The management method according to claim 12, characterized in that: It also includes the following steps: g1) the second cloud management system accepts a second external operation through the second cloud configuration platform, and requests the first cloud management system to modify the access permissions of the one or more projects based on the second external operation; g2) recording, through the demand database, the access rights of the second cloud management system to the one or more projects; and g3) Recording, through the demand database, an analysis rule of the second cloud management system for the data obtained from the project management database.

14. The management method according to claim 12, characterized in that: The step a further includes the following steps: a21) configuring the one or more items and configuring communication protocols for multiple devices in the building through the first cloud configuration platform, and generating a cloud configuration file; and a22) Exporting the cloud configuration file to synchronize the first cloud management system with the intelligent building system.

15. The management method according to claim 14, characterized in that: The step a further includes the following steps: a31) The intelligent building system receives the cloud configuration file from the first cloud management system; a32) enabling one or more corresponding services based on the cloud configuration file; and a33) configuring the intelligent building system based on the cloud configuration file and generating a local configuration file.

16. The management method according to claim 15, characterized in that: The intelligent building system connects the multiple devices in the building through an intelligent building kit, and the step a33) further includes setting a kit role of the intelligent building kit based on the properties of the multiple devices connected to the intelligent building kit, and the local setting file records the kit role.

17. The management method according to claim 16, characterized in that: The step a further includes the following steps: a41) The intelligent building system publishes the local terminal setting file; a42) the intelligent building suite activates a corresponding intelligent computing and analysis function based on the local configuration file; and a43) The smart building kit periodically obtains device data of the multiple devices based on the local setting file, analyzes the device data through the intelligent computing and analysis function, and uploads the analyzed data to the smart building system.

18. The management method according to claim 15, characterized in that: The step a further includes the following steps: a51) The intelligent building system publishes the local terminal setting file; a52) A network front-end receives the local terminal configuration file, and displays a corresponding screen and activates corresponding functions according to the local terminal configuration file; and a53) A mobile phone front end receives the local setting file, displays a corresponding screen and activates a corresponding function according to the local setting file.

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