orbis systems

5G devices are becoming more complex, with advanced antenna systems, wider frequency coverage, beamforming, MIMO, and higher data rates all becoming part of modern wireless products. As these technologies develop, testing only through conducted connections is not enough. Engineers also need to understand how a device performs when its radio signals travel through the air. This is where a 5G OTA chamber becomes an important part of the wireless testing environment. An over-the-air chamber creates a controlled RF space where devices can be tested without relying on a direct cable connection between the device and measurement equipment. This makes it possible to evaluate radiated performance under repeatable conditions while reducing the impact of external interference and unwanted reflections. But choosing an OTA chamber is not simply about finding an enclosure that fits inside a laboratory. The frequency range, RF isolation, absorber configuration, positioning system, automation, DUT s...

Wireless testing is becoming increasingly precise. As devices move into 5G, mmWave, advanced antenna architectures, beamforming, and eventually 6G applications, the physical position of the device and antenna can have a direct impact on measurement results. This is where an RF positioning system becomes an important part of the test environment. Rather than relying on engineers to manually rotate, tilt, or reposition a device, an automated positioning system can control movement with defined angles, repeatable positioning, and software-based automation. This makes it easier to perform consistent measurements across multiple test cycles. Modern RF positioning systems can support applications ranging from antenna characterization and radiation-pattern measurements to beamforming verification and wireless device testing. They can also be integrated into OTA chambers and broader automated test setups. Here are 9 reasons RF positioning systems have become important in modern RF and OTA...

Wireless testing is increasingly moving beyond traditional laboratory environments. As 5G, connected vehicles, IoT, and other advanced communication technologies continue to evolve, engineering teams often need testing capabilities that can be deployed closer to development sites, production environments, or field locations. A sea container OTA chamber provides a practical solution by transforming a shipping container into a controlled, RF-shielded environment for over-the-air testing. This approach combines mobility with the measurement consistency expected from a dedicated test facility. Modern container-based systems can incorporate RF absorbers, programmable positioning, test instrumentation, fixtures, and automation within a single platform. Key Takeaways Provides a flexible environment for over-the-air wireless testing. Can be deployed at different locations without building a permanent chamber. Supports controlled RF measurements with integrated shielding and absorbers. Can inc...

As wireless technologies continue to advance, the demand for accurate and repeatable RF measurements has never been greater. Products such as smartphones, connected vehicles, IoT devices, radar systems, and wireless infrastructure must be tested in environments free from unwanted radio frequency interference. This is where an RF isolation chamber becomes an essential part of every modern RF laboratory. External signals from nearby wireless devices, cellular networks, Bluetooth equipment, and Wi-Fi systems can significantly influence measurement accuracy. An RF shielded test enclosure creates a controlled testing environment by isolating the device under test from outside interference. For applications requiring even greater measurement precision, a shielded anechoic chamber combines RF shielding with absorber technology to minimize signal reflections inside the chamber. Together, these solutions help engineers perform reliable RF validation, accelerate product development, and ens...

 Modern RF testing requires more than powerful instruments and advanced software—it demands precise signal control. Whether engineers are validating wireless devices, testing communication systems, or calibrating RF equipment, controlling signal levels accurately is critical for obtaining reliable results. An RF programmable attenuator enables automated and repeatable signal adjustment without manual intervention, making it an indispensable tool in today's RF laboratories. Unlike fixed attenuators, programmable solutions allow engineers to adjust attenuation levels instantly through software or remote commands. A high-precision attenuator ensures stable signal control across a wide frequency range, while an adjustable RF attenuator provides the flexibility required for research, development, production testing, and system integration. As wireless technologies continue to evolve with 5G, satellite communications, radar, and IoT applications, programmable attenuation has become ...