Abstract: One or more systems, devices, and/or methods for providing navigation-related functions, such as map display, are disclosed. For example, a method may include receiving input corresponding to a location. Photo image data associated with the location are retrieved. The photo image data are based on at least one image captured by a video camera or a photo camera. The photo image data are provided to display at least a portion of a photo image view representing at least a portion of the location. Map data corresponding to the location are retrieved. The map data are provided to display at least a portion of a digital map in the portion of the photo image view, and the digital map is integrated within the photo image view.

Abstract: One or more systems, devices, and/or methods for providing and/or using a navigation/geographic feature are disclosed. For example, a method of operation of a navigation system may include providing a graphics user interface. A data representation of a geographic object, such as a path sign or icon, text, or character thereof, is provided in the graphics user interface. The data representation of the path sign may be provided as a feature of a navigation display. Input identifying a portion of the data representation of the geographic object is received. A navigation-related function is provided based on receiving the input.

Abstract: An approach is provided for determining three-dimensional mesh data associated with one or more object surfaces depicted in at least one image. The approach involves processing and/or facilitating a processing of the three-dimensional mesh data, the at least one image, or a combination thereof to determine one or more visual features of the one or more object surfaces. The approach further involves determining at least one score indicating a suitability for in-situ augmentation of the one or more object surfaces with at least one content presentation based, at least in part, on the one or more visual features.

Abstract: One or more systems, devices, and/or methods for providing navigation-related functions, such as map display, are disclosed. For example, a method may include receiving input corresponding to a location. Photo image data associated with the location are retrieved. The photo image data are based on at least one image captured by a video camera or a photo camera. The photo image data are provided to display at least a portion of a photo image view representing at least a portion of the location. Map data corresponding to the location are retrieved. The map data are provided to display at least a portion of a digital map in the portion of the photo image view, and the digital map is integrated within the photo image view.

Abstract: One or more systems, devices, and/or methods for providing navigation-related functions, such as map display, are disclosed. For example, a method may include receiving input corresponding to a location. Photo image data associated with the location are retrieved. The photo image data are based on at least one image captured by a video camera or a photo camera. The photo image data are provided to display at least a portion of a photo image view representing at least a portion of the location. Map data corresponding to the location are retrieved. The map data are provided to display at least a portion of a digital map in the portion of the photo image view, and the digital map is integrated within the photo image view.

Abstract: Systems, devices, features, and methods for generating and/or using a multi-layered image are disclosed. For example, a method of creating a multi-layered image from a three-dimensional model of a geographic area includes receiving three-dimensional graphical object data that represents a geographic area. The three-dimensional graphical object includes multiple geographic features. A first graphical layer of a first geographic feature of the three-dimensional graphical object is rendered as a first independent image layer. A second graphical layer of a second geographic feature of the three-dimensional graphical object is rendered as a second independent image layer. The first graphical layer and the second graphical layer are combined or overlaid to form the multi-layered image. Also, removal of layers may occur in a reverse order of their creation and/or may avoid causing gaps within the other layers not removed.

Abstract: Systems, devices, features, and methods for generating and/or using a multi-layered image are disclosed. For example, a method of creating a multi-layered image from a three-dimensional model of a geographic area includes receiving three-dimensional graphical object data that represents a geographic area. The three-dimensional graphical object includes multiple geographic features. A first graphical layer of a first geographic feature of the three-dimensional graphical object is rendered as a first independent image layer. A second graphical layer of a second geographic feature of the three-dimensional graphical object is rendered as a second independent image layer. The first graphical layer and the second graphical layer are combined or overlaid to form the multi-layered image. Also, removal of layers may occur in a reverse order of their creation and/or may avoid causing gaps within the other layers not removed.

Abstract: A method is provided, such as for mobile augmented reality personalization. A front-facing camera of the mobile device acquires a first view of a user of the mobile device. A personal characteristic of the user of the mobile device is identified from the first view. A location of the mobile device may be determined. A back-facing camera of the mobile device may acquire a second view of a region at the location. Augmented reality information is selected as a function of the personal characteristic. A second view is displayed with the augmented reality information.

Abstract: Systems, devices, features, and methods for constructing a graphic model of a geographic object, such as a road sign or features thereof, from an image, such as, for example, to develop a navigation database are disclosed. For example, one method comprises receiving a plurality of images of regions, such as of roads or paths. An image of the plurality of images is identified. A process to determine scale-invariant components of a geographic object in the identified image may be performed. Other processes, such as generating a dictionary to facilitate optical character recognition may be performed. A graphic model of the geographic object is generated based on the scale-invariant components and/or the optical character recognition. The generated graphic model may be associated with a navigation or map database.

Abstract: One or more systems, devices, and/or methods for providing navigation-related functions, such as map display, are disclosed. For example, a method may include receiving input corresponding to a location. Photo image data associated with the location are retrieved. The photo image data are based on at least one image captured by a video camera or a photo camera. The photo image data are provided to display at least a portion of a photo image view representing at least a portion of the location. Map data corresponding to the location are retrieved. The map data are provided to display at least a portion of a digital map in the portion of the photo image view, and the digital map is integrated within the photo image view.

Abstract: One or more systems, devices, and/or methods for providing and/or using a navigation/geographic feature are disclosed. For example, a method of operation of a navigation system may include providing a graphics user interface. A data representation of a geographic object, such as a path sign or icon, text, or character thereof, is provided in the graphics user interface. The data representation of the path sign may be provided as a feature of a navigation display. Input identifying a portion of the data representation of the geographic object is received. A navigation-related function is provided based on receiving the input.

Abstract: Systems, devices, features, and methods for community-based collection and use of data for mapping and/or navigation are disclosed. For example, a method is provided for use of community-based data for mapping. A camera image from a mobile device is associated with a geographic location. A processor executes an image recognition algorithm on the camera image. An address or business logo in the camera image is identified with the image recognition algorithm. Address or business logo specific information is determined based on the address or logo and the geographic location. The specific information may be contact information or business operation information.

Abstract: Systems, devices, features, and methods for generating and/or using a multi-layered image are disclosed. For example, a method of creating a multi-layered image from a three-dimensional model of a geographic area includes receiving three-dimensional graphical object data that represents a geographic area. The three-dimensional graphical object includes multiple geographic features. A first graphical layer of a first geographic feature of the three-dimensional graphical object is rendered as a first independent image layer. A second graphical layer of a second geographic feature of the three-dimensional graphical object is rendered as a second independent image layer. The first graphical layer and the second graphical layer are combined or overlaid to form the multi-layered image. Also, removal of layers may occur in a reverse order of their creation and/or may avoid causing gaps within the other layers not removed.

Abstract: Systems, devices, features, and methods for constructing a graphic model of a geographic object, such as a road sign or features thereof, from an image, such as, for example, to develop a navigation database are disclosed. For example, one method comprises receiving a plurality of images of regions, such as of roads or paths. An image of the plurality of images is identified. A process to determine scale-invariant components of a geographic object in the identified image may be performed. Other processes, such as generating a dictionary to facilitate optical character recognition may be performed. A graphic model of the geographic object is generated based on the scale-invariant components and/or the optical character recognition. The generated graphic model may be associated with a navigation or map database.