Lake Mary, FL, United States
Lake Mary, FL, United States

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A portable articulated arm coordinate measurement machine (AACMM) is provided. The AACMM having a manually positionable articulated arm having first and second ends, the arm including a plurality of connected arm segments, each of the arm segments including at least one position transducer for producing position signals, at least one of the position signals passing between two of the arm segments through a first slip ring assembly. A first a first electronic circuit is provided that receives the position signals. A base section is connected to the second end. A probe assembly includes a probe end and a cover. The cover rotates about an axis extending through the probe assembly, the cover having at least one indentation formed thereon. The probe assembly is connected to the first end. The AACMM measures a three-dimensional coordinate of a point in space associated with the probe end.


A method and system are provided for controlling a measurement device remotely through gestures performed by a user. The method includes providing a relationship between each of a plurality of commands and each of a plurality of user gestures. A gesture is performed by the user with the users body that corresponds to one of the plurality of user gestures. The gesture performed by the user is detected. A first command is determined from one of the plurality of commands based at least in part on the detected gesture. Then the first command is executed with the laser tracker.


A coordinate measuring device includes: a light source operable to emit a first light, the first light being visible light having a first wavelength; a fiber launch operable to receive the first light through a first optical fiber, to launch the first light into free space, and to collimate the launched first light into a first beam of light having a diameter_defined by the fiber launch, the first beam of light operable to leave the coordinate measuring device absent an intervening beam expander, the fiber launch being further coupled through the first optical fiber to a distance meter operable to measure a first distance to a retroreflector illuminated by the first beam of light; a first motor and a second motor operable to direct the first beam of light to a first direction, the first direction determined by a first angle of rotation about a first axis and a second angle of rotation about a second axis, the first angle of rotation produced by the first motor and the second angle of rotation produced by the second motor; a first angle measuring device operable to measure the first angle of rotation and a second angle measuring device operable to measure the second angle of rotation; and, a processor operable to determine three-dimensional (3D) coordinates of the target based at least in part on the measured first angle of rotation, the measured second angle of rotation, and the measured first distance.


A three-dimensional (3D) coordinate measuring system includes an external projector that projects a pattern of light onto an object and an aerial drone attached to a 3D imaging device, the 3D imaging device and the external projector cooperating to obtain 3D coordinates of the object.


A method for optically scanning and measuring a scene by a laser scanner includes generating multiple scans; tracking scanner positions with a position-tracking device for the multiple scans and providing tracked scanner positions in response; registering sequentially scans selected from the multiple scans into clusters using registration points or targets and confirming registration of the scans into the clusters according to specified quality criteria being fulfilled; selecting scans from the clusters and forming pairs of scans; forming an intersection of the selected pairs and comparing a size of the intersection with a threshold value obtained based at least in part on the tracked scanner positions; and attempting to register the pairs of scans if the size of the intersection exceeds the threshold value and accepting the registered pairs of scans if the registration is successful.


Patent
Faro | Date: 2016-08-10

A three-dimensional (3D) measuring device includes a cooling fan and an enclosure attached to a projector and a camera. The camera images a pattern of light projected by the projector onto an object to determine 3D coordinates points on the object. A fan draws air through an opening in the front of the enclosure, across a plurality of components in the enclosure and out a second opening in the enclosure.


A three-dimensional measuring system includes a body, an internal projector attached to the body, and a dichroic camera assembly, the dichroic camera assembly including a first beam splitter that directs a first portion of incoming light into a first channel leading to a first photosensitive array and a second portion of the incoming light into a second channel leading to a second photosensitive array.


A method of combining 2D images into a 3D image includes providing a coordinate measurement device and a triangulation scanner having an integral camera associated therewith, the scanner being separate from the coordinate measurement device. In a first instance, the coordinate measurement device determines the position and orientation of the scanner and the integral camera captures a first 2D image. In a second instance, the scanner is moved, the coordinate measurement device determines the position and orientation of the scanner, and the integral camera captures a second 2D image. A cardinal point common to the first and second images is found and is used, together with the first and second images and the positions and orientations of the scanner in the first and second instances, to create the 3D image.


A noncontact optical three-dimensional measuring device that includes a first projector, a first camera, a second projector, and a second camera; a processor electrically coupled to the first projector, the first camera, the second projector, and the second camera; and computer readable media which, when executed by the processor, causes the first digital signal to be collected at a first time and the second digital signal to be collected at a second time different than the first time and determines three-dimensional coordinates of a first point on the surface based at least in part on the first digital signal and the first distance and determines three-dimensional coordinates of a second point on the surface based at least in part on the second digital signal and the second distance.


A method for measuring a distance includes modulating the light beam at a first frequency, receiving a second beam by the optical detector to produce a first electrical signal having the first frequency and a first phase; modulating the light beam at a second frequency different than the first frequency; receiving the second beam by the optical detector to produce a second electrical signal having the second frequency and a second. After these steps, the retroreflector is moved while modulating the light beam continuously at the second frequency; and a first distance to the retroreflector is determined based at least in part on a the first and second frequencies and phases.

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