Ifm Electronic Gmbh

Faro Technologies, Inc.

Ultraflex Systems, Inc.

Yevgeniy Vinshtok

Michael Veksland

Peter Breh

Christopher S Garcia

Matthew Armstrong

Theodore J Hordeski, Jr

Erkan Riza

Ralf Siegler

Mark DeHarde

Charles Pfeffer

Aslan Leo Riza

Duncan Andrew McArdle

Michael J Mcgowan

Daniel Mockler

Michael J McGowan

Michael Becker

John Harper

Justin Leedy

A three-dimensional (3D) measuring system and a method of determining a distance is provided. A three-dimensional (3D) measuring system includes a master part having a first base part and a first part-under-test including a second base. A photogrammetry camera images the master part to generate two-dimensional (2D) images. A first 3D imager determines 3D coordinates in a first imager frame of reference. A second 3D imager determines 3D coordinates in a second imager frame of reference. The system determines in a system frame of reference a first pose of the first imager and a second pose of the second imager. The system is further configured to determine 3D coordinates of the first part-under-test in the system frame of reference.

Three-dimensional imager

A three-dimensional (3D) measuring system and a method of determining a distance is provided. The 3D measuring system includes a display and an imager device. The imager device having a projector, a first camera and a second camera arranged in a predetermined geometric relationship, the first and second camera each having a photosensitive array with a plurality of pixels that transmit a signal in response to a wavelength of light. The projector projects a pattern that includes at least one element. The system further having one or more processors operably coupled to the display, the projector, and the first and second camera. The processors are responsive to computer instructions for determining a distance to the at least one element and changing an indicator on the display corresponding to the distance relative to a predetermined projector-to-object distance.

A sensor housing () includes a basic body () and two tube sections () projecting from the basic body (). At least a first one () of the tube sections has an outside thread which is interrupted in circumferential direction by at least one recessed facet (). The facet () extends&#x2014;from a center plane of the first tube section () being parallel to the longitudinal axis of the second tube section ()&#x2014;on at least one side of this center plane essentially perpendicularly to it.

Sensor housing

Optical scanner

An optical proximity switch includes an optical transmitter for emitting a light signal, a transmitting lens with total internal reflection-using the light signal to form and transmit a light beam , a receiver, an imaging receiving lens for receiving and transmitting to the receiver the light signal, and an electronic circuit for evaluating the light signal received by the receiver.

Optical proximity switch

An optical proximity switch includes a potentiometer for setting a switching point and supported for rotation through multiple turns, a crosswheel supported for rotation and including a visible position index visible, and a cam drive rotatably coupled to the potentiometer and the crosswheel.

A sensor has a corpus comprising an insert opening through which a sensor element can be inserted in the corpus, and a cable opening for passing through a supply and/or signal line of the sensor element and a cover closing the insert opening. The cover comprises an interlock opening aligned with the cable opening. The supply and/or signal line comprises a bushing element which penetrates the cable opening of the corpus and the interlock opening of the cover.

A hinge or joint assembly includes a first member movably connected to a second member to allow angular displacement of the first member relative to the second member in each of extension and flexion (clockwise and counterclockwise) directions, where one elastomeric spring restrains angular displacement in a flexion position, and another elastomeric spring restrains angular displacement in an extension position. In each direction, the angular movement is dampened through compression of the respective elastomeric spring. After dampening the movement in either direction, returning movement is assisted through decompression of the respective elastomeric spring. Alternatively, one or more elastomeric springs are arranged to both dampen through compression and assist through decompression angular movement in each of the flexion and extension directions. The elastomeric spring can provide a pre-determined force deflection curve in compression and an independent rate of return hysteresis in decompression. The elastomeric springs could be urethane.

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Downingtown, PA, United States of America

Yevgeniy Vinshtok