Agilent Technologies Inc. (NYSE: A) today announced greater core performance in two of its X-Series signal analyzers, the midrange MXA and general-purpose EXA. The respective improvements in phase noise allow engineers to more precisely characterize the frequency stability of oscillators and synthesizers. The faster sweep speeds of these analyzers accelerate searches for spurious signals in the testing of transmitters, active antenna arrays and power amplifiers.
Phase-noise performance is a key factor in obtaining low and accurate error vector magnitude values for communication systems and devices. In the MXA, phase noise has been improved by 10 dB or more for close-in and pedestal offset frequencies, providing a best-in-class advantage of 7 dB over the closest comparable competitor. EXA phase-noise performance is up to 5 dB better across wide offset frequencies.
In manufacturing test, spur searches in wide spans at narrow resolution bandwidths have been slow and are often the cause of bottlenecks. The new “fast sweep” capability of these analyzers is up to five times faster than that of competitive models, depending on resolution bandwidth. Faster sweeps improve measurement throughput and make it easier to check the spurious-free dynamic range of devices under test.
“The MXA enhancements are an important complement to our recently introduced options for 160-MHz analysis bandwidth and real-time spectrum analysis,” said Jim Curran, marketing manager of Agilent’s Microwave Communications Division. “Together, these capabilities can help our customers ensure that their devices will transmit accurately and deliver excellent quality of service.”Enhancements to X-Series Measurement Applications Agilent also announced new capabilities in three of the measurement applications available for X-Series signal analyzers. The N9069A noise figure measurement application now includes advanced features that support measurements of multistage converters, multipliers and dividers. The industry-leading N9080A (FDD) and N9082A (TDD) LTE measurement applications now support multimedia broadcast single-frequency network (MBSFN) signals with mixed cyclic-prefix subframe structures. This allows engineers to test physical multicast channels and MBSFN reference signals using virtually any subframe-structure configuration.