Abstract: A robot includes a body having an internal opening. The robot further includes a first wheel configured to deploy out of the internal opening and to retract into the internal opening. The robot further includes a second wheel configured to deploy out of the internal opening and to retract into the internal opening. The robot further includes a sensor configured to determine a location of the robot. The robot further includes a controller configured to control each of the first wheel and the second wheel, wherein in response to the location of the robot being at a predetermined location, the controller is configured to cause the second wheel to deploy out of the internal opening and to cause the first wheel to retract into the internal opening.

Abstract: A robot includes a body having an internal opening. The robot further includes a first wheel configured to deploy out of the internal opening and to retract into the internal opening. The robot further includes a second wheel configured to deploy out of the internal opening and to retract into the internal opening. The robot further includes a sensor configured to determine a location of the robot. The robot further includes a controller configured to control each of the first wheel and the second wheel, wherein in response to the location of the robot being at a predetermined location, the controller is configured to cause the second wheel to deploy out of the internal opening and to cause the first wheel to retract into the internal opening.

Abstract: According to aspects of the disclosed subject matter, an active non-visible reflective system can include one or more retroreflective sections coupled to one or more predetermined locations on an object designated for active non-visible reflection. The one or more retroreflective sections can be configured to actively reflect at least a portion of a predetermined frequency of incoming radiation back to a source of the incoming radiation, the incoming radiation being non-visible, wherein the one or more predetermined locations are illuminated. Additionally, the one or more retroreflective sections can be further configured to enable a perception system to determine that one or more retroreflectors are detected in response to the illumination, and enable processing circuitry communicably coupled to the perception system to detect the illuminated object defined by the one or more detected retroreflective sections.

Abstract: According to aspects of the disclosed subject matter, an active non-visible reflective system can include one or more retroreflective sections coupled to one or more predetermined locations on an object designated for active non-visible reflection. The one or more retroreflective sections can be configured to actively reflect at least a portion of a predetermined frequency of incoming radiation back to a source of the incoming radiation, the incoming radiation being non-visible, wherein the one or more predetermined locations are illuminated. Additionally, the one or more retroreflective sections can be further configured to enable a perception system to determine that one or more retroreflectors are detected in response to the illumination, and enable processing circuitry communicably coupled to the perception system to detect the illuminated object defined by the one or more detected retroreflective sections.

Abstract: Apparatuses and methods for enabling a device to capture additional views with a camera are provided. An apparatus including reflective surfaces may be mounted to a device with a camera. The reflective surfaces may be positioned around the camera lens in such a way so as to redirect light into the lens, giving the effect of the camera being rotated, tilted, or otherwise moved to face a particular direction. A motor may be provided in the apparatus to move the reflective surfaces to a user's preference.

Abstract: Methods and systems for using a mobile device with a multi-element display, a camera, and a controller to determine a 3D model of a target object. The multi-element display is configured to generate a light field. At least a portion of the light field reflects from a target object. The camera is configured to capture a plurality of images based on the portion of the light field reflected from the target object. The controller is configured to determine a 3D model of the target object based on the images. The 3D model includes three-dimensional shape and color information about the target object. In some examples, the light field could include specific light patterns, spectral content, and other forms of modulated/structured light.

Abstract: Methods and systems for distributing tasks among robotic devices are described. A server may receive from a first device, information associated with an assigned task of the first device. The server may determine whether the assigned task can be executed more efficiently with assistance from additional devices, and may further determine available devices that can assist in executing the assigned task. The determined available devices may be ranked according to an amount of usage of the devices over time, and a second device may be selected from the available devices based on the ranking. A subtask of the assigned task may then be determined from a plurality of subtasks of the assigned task based on capabilities of the selected second device. An instruction may then be sent to the second device, instructing the second device to execute the determined subtask.