Maury Microwave, an industry leader in RF/Microwave test and measurement equipment, is presenting its wide range of EMC Immunity Testing Standards at the ongoing IEEE International Symposium on Electromagnetic Compatibility, Signal & Power Integrity (EMC+SIPI) 2024, at in Phoenix, Arizona. EMC immunity testing typically involves placing a device under test (DUT) in a controlled test chamber. There, engineers can observe and analyze how devices, systems, or equipment perform under different levels of electromagnetic interference, ensuring the design meets stringent EMC specifications and functions properly in its intended environment.
Amplifiers play a crucial role during this process, tasked with generating power levels strong enough to drive antennas to required field strengths. This ensures the equipment inside the chamber is evaluated appropriately, preserving test accuracy and compliance.
There are several essential parameters to consider when choosing the right amplifier for your test setup, some of which include:
Booth #310 will feature an EMC immunity testing demonstration, showcasing how Maury Microwave amplifiers, power sensors, and interconnects have the performance needed to meet emerging EMC requirements.
Working
First, a signal source generates a waveform, which is amplified by the MPA-series amplifier. The LLC-series coupler receives this signal as an input and outputs a portion to a 50-ohm load for termination and another to the RTP5000 series sensor, with signal transmission handled by StabilityPlusTM cable assemblies. In a typical EMC radiated immunity testing environment, the amplifier output would be directed to an antenna, which would test the equipment inside a chamber under different electromagnetic interference levels.
Below is a rundown of key capabilities featured in the demonstration that overcome critical EMC immunity test challenges.
MP-series of T&M instrument amplifiers (600 MHz to 67 GHz)
The MP-series of T&M instrument amplifiers (600 MHz to 67 GHz) ensure EMC immunity testing meets industry standards, offering high reliability, outstanding wideband ranges, and linear performance. All units support full CW, pulsed, AM, PM, FM, or complex modulation such as OFDM. The user-friendly remote-control features, integrated couplers, and power detection enable close positioning to the radiating object for minimal cable insertion loss.
Key Specifications and Features:
The RTP5000 Real-Time Peak USB Power Sensors
The RTP5000 Real-Time Peak USB Power Sensors of the Boonton product line address challenges faced by engineers and technicians who design, verify, and maintain systems utilizing pulsed signals. The RTP5000 series incorporates Real-Time Power Processing™ and offers faster rise times; better time resolution; the fastest measurements (100,000 per second); and a complementary, simple, intuitive, and powerful graphical user interface.
Key Specifications and Features:
StabilityPlus phase-stable cable assemblies (SP-series)
StabilityPlus phase-stable cable assemblies (SP-series) set the standard for high-performance ruggedized microwave/RF cable assemblies. Designed specifically for phase-stable and amplitude-stable applications, StabilityPlus offers excellent measurement repeatability even after cable flexure. With a ruggedized, durable construction, StabilityPlus will outlast and outperform other assemblies resulting in a reduced total cost-of-test. StabilityPlus is equally suited for daily use with VNAs as well as high-end test instrumentation. StabilityPlus employs color-coded connectors to reduce potential for connection mistakes and is available with TNCA, SMA, Type N, 7mm, 3.5mm, 2.92mm, 2.4mm, and 1.85mm connectors up to 67 GHz.
Key Specifications and Features:
LLC-Series
The LLC-series of bidirectional airline couplers represents a breakthrough in high-power coupler technology. Combining precision machining with stellar electrical characteristics, LLC-series couplers offer unmatched performance through high directivity and low insertion loss for broadband performance. The LLC-series’ high directivity is important as poor directivity can invalidate calibration and result in erroneous measurements. Its low insertion loss is critical for high-power applications in order to avoid power loss and eliminate drift due to heating. When used as part of a vector-receiver load pull setup this directly maximizes tuning range when combined with an impedance tuner.
Key Specifications and Features:
Click here to learn more about Maury's 2024 IEEE EMC+SIPI Symposium's Info and Schedule.