PLX’s history of newsworthy innovation and problem solving has made it the world’s leader in Hollow Retroreflector and Monolithic Optical Structure Technology™ (M.O.S.T.).
Much of our breakthrough technology is proprietary and customized to fit the needs of such clients as Lockheed Martin, JPL, Raytheon, Northrop Grumman Corporation and cannot be published. However, for more information on how we can help optimize your optical system, call 631-586-4190 and ask for our Director of Engineering, or go to contact us.
Tagsmetrology, interferometry, beam-delivery, boresighting, aerospace, monolithic optics, spectroscopy, laser-tracking, space-applications, satellite, lidar, targeting, defense, autocollimation, MEMS, autocollimator, laser tracking, alignment, telescope, inflight-applications, laserTracking, FTIR, environment-monitor, Hybrid;
PLX’s Tracking Laser Range Finder (T-LRF) uses PLX’s core Monolithic Optical Structure Technology™ (M.O.S.T), combined with PLX’s Active optics precision technology, to create a compact high-performance tracking solution in a highly integrated system. Once the target is acquired, the T-LRF locks onto the target and feeds real time 3-dimensional bearing information to the host system, enabling further actions against the target. It can do this at long ranges against small, fast moving, hard to track targets such as consumer and military drones. The T-LRF can be fitted onto a Counter-UAS system by replacing the conventional LRF module. A prototype is available to demonstrate the performance of the T-LRF. PLX's solution can provide sub arc second accuracy in the harshest operating conditions, making the Tracking Laser Range Finder a game-changing technology in the security, defense, and combat arena.
With their exceptional stability, PLX’s boresighting systems have been repeatedly proven in the field. This paper will expand upon the Monolithic Optical Structure Technology™ (M.O.S.T.) solution with case studies of Monolithic Optical Structure Technology™ (M.O.S.T.) designs and results for specific applications, such as laser delay line systems, boresighting, and telescope alignment systems.
The concept of autocollimation as an optical instrument was conceived about a century ago for accurate, non-contact measurements of angles. Since it was invented, it has developed a long history of being used in alignment of angles and optical elements. Recent novel photonics development has created a need for alignment and measurement of optics and lasers – the new hybrid technology does exactly that.
A team at the University of Sheffield Advanced Manufacturing Research Centre (AMRC) believes Reflex Imaging’s Laser Metrology Module (Lamm) has the power to shake up the metrology market due to the low costs and advanced performance of the sensor it uses compared with more conventional metrology systems
Boresighting refers to the procedure of aligning hardware line-of-sight to an aiming device. In military and aerospace terms, this can apply to applications such as weaponry, from small rifles to artillery, tank and aircraft fire control systems, or long-range cameras mounted on satellites.
Applications such as boresighting, beam alignment and beam delivery require the critical alignment of one optical axis or line of sight with another. In these applications, the beams must be parallel to each other with a high degree of accuracy, in some cases better than one second of arc.
Precision optical alignment capability across a range from the UV to the far-IR and a lighterweight design have long given hollow retroreflectors an advantage over their solid cousins (retroreflector prisms) in boresighting, laser tracking, rangefinding, diverse laboratory applications and even space-based spectrometers.
When two separate bundles of parallel light beams having the same characteristic wavelength and propagation are combined, the combination of the bundles causes a phenomenon called light interference. To create such an interference, Michelson used two mirrors at 90° and a beamsplitter to separate the beams and recombine them. Figure 1 is a schematic of the classical Michelson interferometer.
The studies of the Martian atmosphere and climate have been long time identified as the primaryscientific goal of ExoMars Trace Gas Orbiter (TGO) , which is the follow up of the Mars Science Orbiter concept .