Systems and methods are disclosed for determining position and pose of as well as tracking an object in a physical environment based on the emission and sensing of light signals. The derived position, pose and tracking information may be used in a VR/AR environment. The disclosed systems and methods allow for the improved tracking of both active and passive devices. In addition, the disclosed systems and methods enable an arbitrary number of light sensors to be disposed on an object, thereby increasing accuracy and mitigating the effects of occlusion of certain light sensors. Position and pose estimates may be refined and tracked using a filter lattice responsive to changes in observed system states and/or settings. Further, data received from an inertial measurement unit may be used to increase tracking accuracy as well as position and pose determination itself.

A method of balancing colors of three-dimensional (3D) points measured by a scanner from a first location and a second location. The scanner measures 3D coordinates and colors of first object points from a first location and second object points from a second location. The scene is divided into local neighborhoods, each containing at least a first object point and a second object point. An adapted second color is determined for each second object point based at least in part on the colors of first object points in the local neighborhood.

A method of balancing colors of three-dimensional (3D) points measured by a scanner from a first location and a second location. The scanner measures 3D coordinates and colors of first object points from a first location and second object points from a second location. The scene is divided into local neighborhoods, each containing at least a first object point and a second object point. An adapted second color is determined for each second object point based at least in part on the colors of first object points in the local neighborhood.

A system may include a light source configured to emit a light beam. The system may further include a camera configured to obtain image data of an environment that includes the light beam and a target object. The system may further include a wireless communication component configured to provide the image data to a remote control device that controls an operation of a machine. The image data may be provided to cause the image data to be included in a video feed, of the environment, displayed by the remote control device, The light source may be configured to cause the light beam, in the video feed, to provide a visual indication of a distance from the machine to the target object. Control of the operation of the machine, through the remote control device, is based, at least in part, on the light beam displayed in the video feed.

A system may include a light source configured to emit a light beam. The system may further include a camera configured to obtain image data of an environment that includes the light beam and a target object. The system may further include a wireless communication component configured to provide the image data to a remote control device that controls an operation of a machine. The image data may be provided to cause the image data to be included in a video feed, of the environment, displayed by the remote control device, The light source may be configured to cause the light beam, in the video feed, to provide a visual indication of a distance from the machine to the target object. Control of the operation of the machine, through the remote control device, is based, at least in part, on the light beam displayed in the video feed.

The present disclosure relates to a ranging method and a ranging system, the ranging method includes using a first laser emitting portion of a laser emitting device to emit a vertical laser beam rotating in a vertical plane at a first rotation speed; calculating a time difference between the vertical laser beam passing through a first optical detection component and a second optical detection component by using the first optical detection component and the second optical detection component on a laser receiving device at least partially on the same vertical plane, wherein a distance between the two optical detection components is a first spacing; and calculating a first distance between the laser emitting device and the laser receiving device based on the first rotation speed, the first spacing, and the time difference.

The present disclosure relates to a ranging method and a ranging system, the ranging method includes using a first laser emitting portion of a laser emitting device to emit a vertical laser beam rotating in a vertical plane at a first rotation speed; calculating a time difference between the vertical laser beam passing through a first optical detection component and a second optical detection component by using the first optical detection component and the second optical detection component on a laser receiving device at least partially on the same vertical plane, wherein a distance between the two optical detection components is a first spacing; and calculating a first distance between the laser emitting device and the laser receiving device based on the first rotation speed, the first spacing, and the time difference.

A rotating laser apparatus includes a laser emitting module configured to emit a first laser and a second laser, the first laser and the second laser forming a first included angle; a rotating module configured to make the first laser and the second laser respectively rotate around a first rotation axis to form a first laser surface and a second laser surface that do not overlap with each other; and a base connected to the laser emitting module and the rotating module and configured to support the laser emitting module and the rotating module.

A rotating laser apparatus includes a laser emitting module configured to emit a first laser and a second laser, the first laser and the second laser forming a first included angle; a rotating module configured to make the first laser and the second laser respectively rotate around a first rotation axis to form a first laser surface and a second laser surface that do not overlap with each other; and a base connected to the laser emitting module and the rotating module and configured to support the laser emitting module and the rotating module.

An object detection system for a motor vehicle is proposed. The system includes an array of electroluminescent light sources, an array of light sensors and a calculating unit. At least one of the electroluminescent light sources is able to emit a signal. At least one of the sensors is able to receive the emitted signal that has been reflected by an object. The calculating unit is able to calculate, by triangulation, the position of the object on the basis of the position, in one of the arrays of electroluminescent light sources, of at least one of the electroluminescent light sources able to emit a signal and on the basis of the position, in one of the arrays of light sensors, of at least one of the sensors able to receive the signal reflected by the object.