Applications of SCHOTT® low-loss
Automotive
By increasing the frequency range to 77 GHz and above, SCHOTT® low-loss glass enhances radar systems used in autonomous driving. The material is a perfect fit for distance sensors and imaging radar applications, providing superior signal clarity and precision. Its exceptional dielectric properties ensure minimal signal loss and high reliability, which are crucial for the safety and efficiency of modern vehicles.
Industrial applications
SCHOTT® low-loss glass is ideal for high-frequency sensing in industrial applications, such as quality control and precise distance measurements. Its low dielectric loss supports reliable performance in RF antennas and components, whether deployed in space or terrestrial environments. This advanced material enables high-resolution imaging and accurate data acquisition, enhancing the effectiveness of industrial processes.
Advanced telecommunication
Implemented in telecom systems, SCHOTT® low-loss glass provides efficient high-bandwidth and high-speed data connections. Its integration into 5G and 6G enables 140GHz point-to-point links for seamless connectivity. It effectively addresses latency issues, enhancing antenna range and speed - ideal for user and machine-to-machine communication. Superior surface accuracy and scalability support the higher frequencies needed for next-gen networks.
Internet of things (IoT)
IoT relies on high data transfer rates to keep connected devices seamlessly integrated. SCHOTT® low-loss glass facilitates this development by ensuring efficient, high-frequency signal transmission with minimal loss. Its dielectric properties enable the creation of compact antenna packages on small surfaces that require precise manufacturing. This makes IoT networks faster and more capable of handling the growing data demands of connected devices.
Space
SCHOTT® low-loss glass has the potential to transform space applications by facilitating both inter-satellite and space-to-ground communication. Its low dielectric loss allows for the integration of filter functionalities, enhancing signal clarity and performance. Combined with hollow waveguide structures, it supports the development of advanced communication systems with high precision, improved stability, and minimal signal loss.
