JLLN350.XXP

The JLLN350.XXP application field covers a wide spectrum of aerospace, earth observation, space exploration, and science applications. Its core technology pursues precision and perfect performance in order to meet the rigorous and demanding requirements of space exploration and scientific research.

Working Principle

The JLLN350.XXP uses advanced electronic corner cube interferometry (ECCI) to measure the direction, magnitude, and polarization of a light beam. This process requires the sensor to measure the intensity of the light coming from different angles and measuring the fringes produced by the combination of light beams at a given distance. ECCI is capable of providing precise measurements in the order of nanometers and the accuracy of the system goes up to ±2nm.

The device works by emitting a light beam at a given angle to the receiver. The receiver measures the phase of the beam coming from different directions and later combines those beams to measure the original angle of the beam before hitting the receiver. The combination of light beams creates interference fringes at a given distance, which can then be used to measure the angle of the original beam. The accuracy of this system is usually ±2nm.

System Components

The JLLN350.XXP consists of several essential components in order to be able to measure with the required precision. These components include a light source, receiver, directional coupler, waveguide, beam combiner, and data storage unit. The light source emits a light beam that is directed to the receiver with an angle. The waveguide then guides the light beam to the directional coupler, which separates the beam in two parts. One part goes directly to the receiver and the other is sent to the beam combiner. The beam combiner combines the two beams together to generate interference fringes at a distance. Finally, the system stores the data in the data storage unit for later analysis.

Advantages

The JLLN350.XXP system offers several advantages over traditional optical instruments, such as the traditional theodolite. Firstly, it is able to measure with extreme accuracy due to its ECCI system. Secondly, it can measure angles with a frequency of up to 1KHz, which is much faster than what is achievable with theodolites. Additionally, the system is also much more compact, allowing for ease of transport and installation. Finally, its ability to measure angles in three axes allows for the simultaneous capture of different angles at once.

Conclusion

The JLLN350.XXP is a highly accurate system with a wide range of applications. Its advanced ECCI technology allows it to measure angles with an accuracy of up to ±2nm, making it ideal for aerospace, Earth observation, and scientific research applications. Additionally, its high frequency rate and compact size make it an attractive system for a variety of settings.