Ram Photonics Industrial, LLC

Per Adamson

Joseph Lawson

Jordan P Leidner

Mike Cinquino

Robert Balonek

Systems and methods for measuring a cleave angle of an optical fiber using a cleave angle measurement system is provided herein. In an aspect, a method for measuring a cleave angle of an optical fiber may include providing a cleave angle measurement system. The cleave angle measurement system may include an optical fiber channel, an image sensor, and a light source. The method may include placing an optical fiber having a cleaved end into the optical fiber channel. The method may include determining an optical center of the image sensor. The method may include reflecting light transmitted by the light source off of the cleaved end of the optical fiber and detecting, by the image sensor, light reflected off of the cleaved end of the optical fiber. The cleave angle of the optical fiber may be determined based on the light reflected off of the cleaved end.

Systems and methods for measuring a cleave angle of an optical fiber

Various embodiments and methods related to an optical fiber alignment system are provided herein. The optical fiber alignment system includes a controller and a rotation stage having a central axis, a first end, and a second end. The central axis extends from the first end to the second end of the rotation stage. The rotation stage includes an optical fiber channel extending from the first end of the rotation stage to the second end of the rotation stage and may be operationally coupled with the controller. The rotation stage is configured to rotate about the central axis of the rotation stage. The optical fiber alignment system includes a light source positioned to emit light onto the optical fiber channel at an oblique angle from the central axis of the rotation stage. The optical fiber alignment system includes an image sensor positioned adjacent to the second end of the rotation stage.

Method and system for rotational alignment of polarization maintaining fibers

A method for profiling a laser beam includes receiving the laser beam at a thermochromic interface of a detector. A temperature set point for the detector can be selected. The temperature set point can correspond to an equilibrium temperature at the thermochromic interface. The method can also include capturing an image of the thermochromic interface and using the image to determine a partial intensity profile corresponding to at least a portion of the beam intensity profile. A reconstructed beam profile can be assembled using the partial intensity profile. If the reconstructed beam profile is not complete, the method can include iterating over additional temperature set points to determine additional partial intensity profiles. The method can also include determining that the reconstructed beam profile is complete and outputting the reconstructed beam profile.

Techniques for laser beam sensing and profiling using temperature-sensitive structures

A system for determining the profile of a laser beam includes a detector having a thermochromic liquid crystal film (TLCF) in thermal communication with a heat spreader and a thermoelectric cooler. The liquid crystal film has a thermochromic response such that heating of the film by a received laser beam creates a detectable color response at the film. The system also includes an image sensor and a controller configured to output an operating current for the TEC and receive images from the sensor. The system can selectively vary the temperature set point of the TEC to change the steady state temperature of the TLCF to examine the full intensity profile of the received beam even when the temperature response bandwidth of the TLCF is too narrow to display the full beam profile in a single color spot.

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Conesus, NY, United States of America

Per Adamson