KR102001377B1 - System and method for managing physical space information at home environment - Google Patents
System and method for managing physical space information at home environment Download PDFInfo
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- H04L12/28—Data switching networks characterised by path configuration, e.g. LAN [Local Area Networks] or WAN [Wide Area Networks]
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- H04L12/2807—Exchanging configuration information on appliance services in a home automation network
- H04L12/281—Exchanging configuration information on appliance services in a home automation network indicating a format for calling an appliance service function in a home automation network
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Abstract
The present invention relates to a physical spatial information management system of a home environment, comprising: an information providing agent for converting physical space information of a home into a predetermined spatial information expression format and delivering the information to a home information management server; A home information management server for receiving, processing, and managing spatial information is provided.
Description
The present invention relates to a system and method for managing physical spatial information of a home environment, and more particularly, to physical information about a physical space, a structure, and a facility of a home determined in a design / construction process of an individual or shared house. The present invention relates to a system and method for managing physical spatial information of a home environment that can be utilized as one resource in a network environment and combined with other resource information such as devices, networks, and services connected to the home network.
Home physical space refers to physical information about the building structure such as walls, columns, and floors, or the actual space and facilities that make up a house. That is, in a home environment, physical space information includes information about a structure of a building such as a wall, a pillar, or a floor or a location of a facility such as a door, a network cable, an electrical outlet, or a space such as a living room or a kitchen in a private or shared house. .
Most of the space and structure information is determined and fixed during the design and construction of the house. Therefore, if the information on the space and structure of the house in advance in terms of managing resources in the home environment can be useful in various aspects. For example, when a newly purchased device is plugged into an outlet, if the user knows in advance the information about the wall and room where the outlet is located, the device can automatically determine where it is plugged in. In addition, the cleaning robot can be effectively cleaned without a separate sensing algorithm to know the structure or size of the space to be cleaned.
One of the sources of information about the physical and spatial information of the home is the use of BIM (Building Information Model) information created during the design and construction phases of the home. BIM is a digital information model of buildings that is expressed in three dimensions to efficiently maintain a large number of information generated during the life cycle of buildings including houses. The digitized building information may include various property information related to the building as well as various facility information such as space and structure information of the building, electrical and cable wiring, gas piping, and fire fighting facilities.
In this regard, an intelligent facility management apparatus using BIM information and a method thereof are disclosed. The intelligent facility management apparatus using the BIM information may model at least one of a sensor network capable of sensing an abnormality of a building, a facility installed in a building, or a facility, and may have an abnormality based on a sensing signal received from the sensor network. Determine the information on the abnormal facility and the location of the abnormality, and included in the building based on at least one of the determined abnormal facility, the information on the abnormal location, or the BIM information of the building, and It is to determine at least one of information about the associated space in which the spatial correlation exists. However, the intelligent facility management apparatus using the BIM information is limited to determining the information on the damage space or the associated space associated with the abnormal facility.
Furthermore, since the BIM information is a huge amount of information including various material specifications and layouts used for the design and construction process of the building, it is burdensome and unnecessary to manage all of the information in the home. In other words, the information you actually need while maintaining your home is very limited and limited to some information.
Therefore, there is a need to newly define the information needed in the process of maintaining the home environment, and to define a schema for data representation. In addition, physical information about the actual space, structure, and facilities of the home, which are determined during the design and construction of the house, is utilized as a resource in the home network environment. It is necessary to utilize them in combination.
The present invention has been invented in view of the above, and utilizes physical information about the actual space, structure, and facilities of a home determined in the design / construction process of an individual or apartment house as one resource in a home network environment. An object of the present invention is to provide a system and method for managing physical spatial information in a home environment, which can be used in combination with other resource information such as devices, networks, and services connected to the home network.
The physical spatial information management system of a home environment according to one aspect of the present invention is an information providing agent for converting physical space information of a home into a predetermined spatial information expression format and delivering the information to a home information management server, and a home from an information providing agent. A home information management server is provided for receiving, processing, and managing physical space information.
At this time, the information providing agent receives the physical space information of the home and converts it into a predetermined spatial information expression format, and generates a predetermined type of message using the converted physical spatial information data, and generates the message. And a message generator for transmitting to the home information management server. The home information management server parses the message received from the message generator and provides the physical spatial information collector to the physical spatial information collector. The physical information manager collects the physical spatial information of the home environment from the message processor and configures the data. And a relationship analyzer for analyzing and mapping the relationship between the logical information of the resource and the physical space information, and a relationship information generator for generating the physical space relationship information of the home resource.
Preferably, the physical spatial information converter is connected with a housing building information DB or a housing building information file to receive housing building information regarding design or construction information in 2D or 3D form.
The predetermined spatial information representation format of the physical spatial information converter is a data representation schema including attribute information or relationship information between objects constituting the space of the home. In this case, the object type used for representing the physical spatial information of the home is grouped into an address class, a spatial class, a structure class, or a facility class, and each class includes a detailed object type. It is preferable to include upper class information of the class according to its object type.
The home's physical space data representation schema is preferably a home's physical space specification that includes a list of physical space objects and a list of mesh objects of the physical space objects. The physical space object list type includes a plurality of physical space objects and the number of physical space objects. The physical space object type includes an object name, an object type, an object ID, a mesh object ID, an object handle, rendering information, and an object property list. Preferably, object relationship information, or drawing file information. The rendering information type may include a mesh object ID, a coordinate value, a scale value, a rotation coordinate value, a minimum coordinate value, or a maximum coordinate value. The object relationship information type may include a spatial relationship, a structure relationship, or a facility relationship. The drawing file information type may include a file name, a location URI, or a file size. The mesh object list type may include a plurality of mesh objects and the number of mesh objects, and the mesh object type may include a mesh object ID, a material name, a mesh file name, or a mesh object unit.
In addition, the physical space relationship information of the home resource of the relationship information generator may include a resource relationship object identifier, a resource relationship name, a resource relationship type, an identifier of a resource that is a source of a resource relationship, or a list of identifiers of resources that are a target of a resource relationship. It is preferable to include.
According to another aspect of the present invention, a physical spatial information management system of a home environment includes a physical spatial information collector configured to collect physical space information of a home converted to a predetermined spatial information expression format and configure data, and logical information and physical information of a home resource. And a relationship analyzer for analyzing and mapping the relationship between the spatial information and a relationship information generator for generating physical spatial relationship information of the home resource.
In the physical spatial information management method performed in a physical spatial information management system of a home environment including a networked home information management server and an information providing agent, the information providing agent converts the physical spatial information of the home environment to a predetermined spatial information expression format. And generating, by the information providing agent, a predetermined type of message by using the converted physical spatial information data, and transmitting the message to the home information management server, parsing the received message by the home information management server, and physically Collecting and configuring spatial information, analyzing and mapping a relationship between logical information and physical spatial information of a resource by a home information management server, and generating physical space relationship information of a resource by a home information management server; .
In this case, the predetermined spatial information representation format of the information providing agent is preferably a data representation schema including attribute information or relationship information between objects constituting the home space. The object types used to represent the physical spatial information of the home are grouped into address classes, spatial classes, structure classes, or facility classes, and each class includes a detailed object type. It is preferable to include upper class information of the corresponding class according to the object type.
The home's physical space data representation schema is preferably a home's physical space specification that includes a list of physical space objects and a list of mesh objects of the physical space objects. The physical space object list type includes a plurality of physical space objects and the number of physical space objects. The physical space object type includes an object name, an object type, an object ID, a mesh object ID, an object handle, rendering information, and an object property list. Preferably, object relationship information, or drawing file information. The rendering information type may include a mesh object ID, a coordinate value, a scale value, a rotation coordinate value, a minimum coordinate value, or a maximum coordinate value. The object relationship information type may include a spatial relationship, a structure relationship, or a facility relationship. The drawing file information type may include a file name, a location URI, or a file size. The mesh object list type may include a plurality of mesh objects and the number of mesh objects, and the mesh object type may include a mesh object ID, a material name, a mesh file name, or a mesh object unit.
As described above, according to the present invention, physical space information of a home environment is used as one resource in a home network environment to be used to effectively control or effectively manage other resources (devices, networks, services, etc.) connected to the home network. It can be expected to reduce the maintenance cost.
In addition, it is possible to create a variety of location-based intelligent management services by combining physical spatial information in the home environment and logical information collected from home resources.
1 illustrates a hierarchical structure of resource objects in a home network environment.
2 is a block diagram illustrating a management system for managing physical space information in a home environment according to a preferred embodiment of the present invention.
3 is a hierarchical diagram of a physical space object class of a home.
4 illustrates an example of a physical space object type of a home.
5A-5C show examples of home physical space specifications.
6 shows an example of a relationship mapping between logical information and physical spatial information of a home resource.
7 shows an example of creating a physical spatial relationship of a home resource.
8 is a flowchart illustrating a method of managing physical spatial information in a home environment according to an embodiment of the present invention.
Hereinafter, exemplary embodiments of the present invention will be described in detail with reference to the accompanying drawings. However, the following embodiments are provided to those skilled in the art to fully understand the present invention, and may be modified in various forms, and the scope of the present invention is limited to the embodiments described below. It doesn't happen.
The Home Resource Model is an abstract representation of objects within a home, which includes properties, relationships, and operations performed on them. There are two types of objects: resource objects and resource relation objects. Resource objects refer to units of Home Electronic System (HES) in a domain of a home environment. An object that specifies the relationship between resource objects in.
The home resource model describes home resource information and its relationships. The home resource model may be represented by a resource description schema including a resource object and a resource relationship object. The home resource model must be able to accommodate different systems and applications, and distribute management information between them. Home resource information can also be used for remote maintenance such as error diagnosis and resolution.
Home resource objects are located within the resource management process in the home environment. The resource object includes information from managed elements and may have three levels of hierarchies as shown in FIG. 1, that is, a domain, a class, and an object. Objects represent the basic units in a resource hierarchy. Resource objects have a one-to-one correspondence with objects in the real world. Resource objects are grouped into classes by their common functionality. In addition, resources are grouped into domains according to resource types such as devices, networks, services, and physical spaces. The home resource model can have multiple domains depending on the number of resources it manages. That is, in FIG. 1, the number of domains and the number of classes may be added or deleted.
The resource object may consist of common information and object information specific to a domain. Here, the common information of the resource object may include a resource identifier, a resource name, and a resource type. Here, the resource identifier is a unique identifier for identifying the object in the resource management process. This may consist of a domain ID and an object ID. The domain ID is a domain identifier to which the resource object belongs. The object ID is a unique identifier for identifying the object in the domain. The resource name means a name of a resource object and may be formed of a character string. The resource type refers to a resource type and may be expressed in hexadecimal. Resource types are created using classes and subclasses of resource objects. The structure of a resource object may be described by a BNF (Backus-Naur Form) notation.
The information on the physical space domain in the domain may include object ID, coordinates, internal relations, physical space object attribute list, and drawing file information. The object ID is a physical space object identifier and may be formed of a string combining a letter and a number. An internal relationship refers to an internal relationship with an upper class object according to an object type, and the internal relationship information distinguishes a location of a physical space object.
Hereinafter, a physical spatial information management system of a home environment according to a preferred embodiment of the present invention will be described in detail with reference to FIG. 2.
2 is a block diagram illustrating a management system for managing physical space information in a home environment according to a preferred embodiment of the present invention. As shown in FIG. 2, the physical spatial information management system according to the preferred embodiment of the present invention includes a home
The home
The physical
The spatial information representation format of the physical
All objects constituting the physical space may include higher class information of the corresponding class according to their object type. For example, as shown in FIG. 3, the spatial class relationship information may be an address such as APT, dynamic or arc. Information should be included, and facility class relationship information includes APT, building, arc, space, and structure information. Thus, for example, if the relationship information for the wall, wall, building, and APT containing the wall “Wall01” is specified for the wall object “Wall01”, “Wall01” is ooo apartment, building, building, It is possible to determine if it is located in oo space. In order for an application to render a physical space on a display screen, rendering information such as a spatial information drawing file or object coordinates (ex: coordinates, scale,…) may be stored.
The object type used for representing the physical spatial information of the home may be classified as shown in FIG. 4. As classified in FIG. 4, the physical space objects of the home may be largely classified into a space class, an architecture class, and a facility class, and each class includes a detailed object type. APT, copper and call classes can be bound to address classes. The space class refers to objects used to classify real spaces in the home, such as living rooms, rooms, kitchens, bathrooms, and porches. On the other hand, the architecture class defines the objects that make up the structure of the home, and includes walls, doors, stairs, windows, floors, and ceilings. The facility class defines the home's facilities and facility objects, including doors, windows, LAN ports, TV ports, network lines, electrical ports, and built-in devices.
Table 1 specifies the physical space object class of the home defined in FIG.
Table 2 specifies the detailed object types of the space classes defined in Table 1.
Table 3 specifies the detailed object type of the architecture class defined in Table 1.
Table 4 specifies the detailed object types of facility classes defined in Table 1.
The data schema for specifying the home's physical space can be defined in XML format. A data schema is an abstract representation for defining the structure and format of an entire data. The physical space description of the home is used by the physical space
5A is a format for expressing the physical space of the groove. In the latter part, 'PhysicalSpaceObjectListType' is a list type of physical space objects, 'NumOfPhysicalSpaceObject' is the total number of physical space objects, and the number of physical space objects may be composed of integers. 'MeshObjectListType' is a list type of mesh (shape) objects for rendering physical space objects, and 'NumOfMeshObject' is the total number of mesh (shape) objects, which may be composed of integers. In FIG. 5A, 'PhysicalSpaceObject' may be composed of one or more physical space objects.
5B illustrates the 'PhysicalSpaceObjectType' attribute of 'PhysicalSpaceObject'. In FIG. 5B, 'ObjectName' is a physical space object name, which consists of a string and is not limited in length. 'ObjectType' defines a physical space object type and may be designated as one of predefined physical space object types. 'ObjectID' is a unique ID of a physical space object, and is an identifier for uniquely identifying a physical space object. The object ID consists of a string and is not limited in length. 'MeshObjectID' is a mesh (ID) object ID. It is a delimiter that uniquely identifies mesh objects. The mesh object ID consists of a string and is not limited in length. 'ObjectHandle' may be composed of a string as a handle value of a physical space object. 'RenderingInfo' is a set of information required to render a specified physical space object on a terminal screen. 'ObjectPropertyList' is a list of one or more property information about the physical space. 'DrawingFileInof' is drawing file information about 2D or 3D type home physical space structure.
In 'RenderingInfoType' of FIG. 5B, 'MeshObjectID' is a mesh (shape) object ID of a physical space object and may be configured as a string. 'Position' is a relative coordinate value for rendering a physical space object, and is composed of X, Y, and Z properties. 'Scale' is a scale value for rendering a physical space object, and is composed of X, Y, and Z properties. 'Rotation' is a rotation coordinate value for rendering a physical space object, and is composed of X, Y, and Z properties. 'Min' is the minimum coordinate value for rendering a physical space object and consists of X, Y, and Z properties. 'Max' is the maximum coordinate value for rendering a physical space object and consists of X, Y, and Z properties.
In FIG. 5B, 'ObjectPropertyList' is composed of one or more object property information lists. 'ObjectProperty' represents individual properties of a physical space object and expresses detailed specification or style of the object. 'PropertyNo' is an object property number for identifying object properties and has an integer type. 'PropertyName' is the name of an object property and consists of a string of unlimited size. 'PropertyValue' is an object property value. It consists of a string with no size limit.
In FIG. 5B, 'ObjectRelationInfo' is a format for expressing relationship information between physical space objects, and is composed of one of three pieces of relationship information of spatial relationship, structure relationship, and facility relationship according to the object type. 'SpaceRelationInfo' is a format for representing relationship information required for space objects such as rooms, entrances, porches, gardens, and terraces. 'ArchitectureRelationInfo' is a format for expressing necessary relationship information for structure object such as wall, ceiling, floor, column, beam. 'FacilityRelationInfo' is a format for representing relationship information required for facility objects such as doors, windows, railings, network cables, TV ports, LAN ports, electrical outlets, and built-in devices.
In FIG. 5B, 'DrawingFileInfo' is a format for representing drawing file information in which a physical space of a groove is drawn in a 2D / 3D form. 'FileName' is the name of the drawing file, consisting of a string of unlimited length. 'LocationURI' is a format for expressing the location of a drawing file as a URI type, and consists of a string of unlimited length. 'FileSize' is expressed as an integer in a format for representing the size of a drawing file.
In FIG. 5C, 'MeshObjectID' is a format for expressing a mesh object unique ID and is a string having no length limitation. 'MaterialName' is a format for representing the material name of a mesh object. It is a string of unlimited length. 'MeshFileName' is a format for representing mesh object file names. It is a string of unlimited length. 'MeshUnit' is a format for representing mesh object units. It is a string of unlimited length.
Referring back to Figure 2 will be described in more detail with respect to the home information management server.
The
The physical
The
The
The physical space information processed and analyzed by the home
Hereinafter, a method of managing physical spatial information of a home environment according to a preferred embodiment of the present invention will be described with reference to FIG. 8.
8 is a flowchart illustrating a method of managing physical spatial information in a home environment according to an embodiment of the present invention. The physical spatial information management method of a home environment according to a preferred embodiment of the present invention is performed in a physical spatial information management system of a home environment including a home information management server and an information providing agent connected to a network such as an apartment complex network or a local unit network. .
First, the information providing agent converts the housing building information related to the design or construction information in accordance with a predetermined spatial information expression format (S300). The housing building information may be in 2D or 3D form. In this case, it is preferable that the physical spatial information expression format defines the physical spatial information property of the home environment so that it is independent of the specific design tool used in the design / construction process of the house. Specifically, the schema representing the spatial information of the home may preferably include attribute information of the objects constituting the home space, relationship information between the objects, and the like.
All objects constituting the physical space may include upper class information of the corresponding class according to their object type. Objects used for representing the physical spatial information of the home may be grouped into a space class, an architecture class, a facility class, and the like, and each class includes a detailed object type. The data schema for specifying the home's physical space can be defined in XML format. 5A through 5C illustrate examples of the home physical space specification as described above.
Next, the information providing agent generates a predetermined type of message using the converted physical spatial information data (S310), and transmits it to the home information management server (S320).
Next, the home information management server parses the received message (S330), collects and configures physical space information of the home environment (S340).
Next, the home information management server analyzes and maps the relationship between the logical information of the resource and the physical space information (S350). In operation S360, physical space relationship information of the resource is generated.
Finally, it utilizes a variety of physical space relationship based information (S370). For example, it may be utilized to manage and control resources connected to a home network such as a device, a network, a service, and the like.
Claims (31)
An information providing agent that receives physical space information, which is object information on at least one of a structure of a home, space information, and facility location information, from the external server and converts the data into a predetermined spatial information expression format;
And a home information management server for receiving the physical space information converted from the information providing agent and analyzing the relationship between the received physical space information and the property and state information of the home resource to generate spatial relationship information. ,
The spatial relationship information may include at least one of statistical analysis based on the physical space information and attribute and status information of the home resource, correlation analysis between messages, and similarity analysis. Is generated using,
The physical space information in which the representation format is converted is used to manage and control at least one home resource connected to a home network.
A physical spatial information converter which receives the physical space information and converts the information according to a predetermined spatial information expression format;
And a message generator for generating a message of a predetermined type using the converted physical space information data and transmitting the generated message to the home information management server.
A message processor for parsing a message received from the message generator;
A physical space information collector configured to collect the physical space information parsed from the message processor, attributes and state information of the home resource, and configure data;
A relationship analyzer for extracting and mapping relationships by separately analyzing the physical space information, the attributes, and state information between objects;
And a relationship information generator for generating spatial relationship information by using the mapping relationship analyzed by the relationship analyzer.
The physical spatial information management system of a home environment, characterized in that it is a data representation schema containing attribute and status information of objects constituting a space of a home or relationship information between objects.
A relationship analyzer for analyzing and mapping a relationship between attribute and state information of the resource of the home and the physical space information; And
Using a mapping relationship analyzed by the relationship analyzer, including a relationship information generator for generating spatial relationship information between the resources,
The spatial relationship information includes at least one of statistical-based relationship analysis, correlation analysis, and similarity analysis based on the physical space information and attribute and state information of the resource. A physical spatial information management system of a home environment created using.
Converting, by the information providing agent, physical space information of a home environment according to a predetermined spatial information expression format;
Generating, by the information providing agent, a predetermined type of message using the converted physical space information, and transmitting the generated message to the home information management server;
Parsing the received message by the home information management server to collect and configure the converted physical space information of a home environment;
Generating, by the home information management server, spatial relationship information between the home resources by analyzing and mapping a relationship between the converted physical space information and attributes and state information of at least one home resource; And
And managing and controlling at least one home resource connected to a home network by using the spatial relationship information.
In the step of generating, by the home information management server, spatial relationship information between the home resources by analyzing and mapping the relationship between the converted physical space information and at least one home resource attribute and state information.
Generating the spatial relationship information using at least one of statistical-based relationship analysis, correlation analysis, and similarity analysis based on the physical space information and the attribute information; Physical spatial information management method performed in the physical spatial information management system of the home environment.
The plurality of physical space object types may include object names, object types, object IDs, mesh object IDs, object handles, rendering information, object property lists, object relationship information, or drawing file information. Way.
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