FA11825_TINA3-WW Optoelectronics

Optics - Lenses

The FA11825_TINA3-WW (TINA) is an optical lens designed to manipulate light at various transmission angles. It features a 10 GHz bandwidth, a broadcast‐grade low headloss, and a 3.3 dB maximum polarization loss. It is commonly used in optical and optoelectronic devices, imaging tasks, and broadcast systems.

The working principle of the TINA lens is based on at least three factors. First, an optical design consisting of a half-table of multiple optical elements provides the device with the ability to split the light source into two desired separate paths. Second, the usage of polarization angles to affect the incident radiation on the optical elements leads to higher transmission efficiency and better optical responses on certain desired selectivity. Third, the stitching technology between the interfaces makes the lens better at controlling the polarization of the polarized incident waves.

The FA11825_TINA3-WW’s application field spans from broadcast systems to optoelectronic devices. The lens structure is suitable for a wide range of transmission systems, such as high-reliability fiber communications, ultra-broadband communications, and long-distance optical communication networks. Additionally, due to its flexible optical design, the lens enables the spreading of the light signal between two separate paths or channels. This is beneficial in applications such as satellite communications, surveillance systems, optical networks, and industrial processes.

Furthermore, the TINA lens is also suitable for imaging tasks. It is designed to optimize light detection and imaging performance due to its variety of angles of light emission. It also increases the flexibility in the optical systems due to its adjustable polarization angles, making it ideal for focusing or imaging in limited spaces. In addition, its stitching of the different optical elements further increases the accuracy of the imaging effects.

The FA11825_TINA3-WW is an invaluable piece of optics technology. Its flexibility and transmission efficiency gives it enhanced advantages to other optical lenses, particularly for the purpose of image manipulation or broadcasting systems. As such, it is a necessary component of existing as well as emerging optoelectronic devices, imaging capabilities, and broadcast systems.