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Native PXI/PXIe modules are generally aimed at the testing market, which means they tend to have lower throughput, with less processing power.  Learn how adding a rich portfolio of FPGA DAQ XMC modules can leverage COTs for high performance applications.

The new 5G requirements will create opportunities for diverse new applications that will impact the design process. Read more about FEKO’s comprehensive solutions for device and base station antenna design.

High expectations for 5G means high risk for developers. See how we can help smooth the way in our on-demand webcast, The Road to 5G. Watch Now.

Native PXI/PXIe modules are generally aimed at the testing market, which means they tend to have lower throughput, with less processing power.  Learn how adding a rich portfolio of FPGA DAQ XMC modules can leverage COTs for high performance applications.

Switching can be a cost-effective and efficient option for expanding the channel count of your instrumentation, but it is not always the best option. Learn about the four different switching architectures and determine the best strategy to meet the needs of your test system.

As technology evolves, choosing the best way to keep pace depends on the capability of your test assets. Keysight can help with Technology Refresh Services ranging from advisory consulting to equipment trade-ins. Explore the possibilities in our eBook: it describes ways to evaluate trade-offs and manage choices.

The wireless communication infrastructure must evolve to support growing user and data demands. See how service operators are investigating the use of mmWave technology to evaluate the best candidate frequencies for use in next gen 5G mobile applications.

Operation of modern telecom, navigation, control and measurement systems requires reference frequency sources. Their performance actually determines the systems’ main characteristics. Frequency stability vs. temperature, long-term and short-term stabilities, and phase noise are the most important for many applications. Read this white paper about this topic.

Time Difference of Arrival (TDOA) is a technique for geo-locating RF sources. It requires three or more remote receivers (probes) capable of detecting the signal of interest. Each probe is synchronized in time to capture corresponding I/Q data blocks. Software shifts the time signature of each I/Q data set to find the difference in the arrival time at each probe.

This paper covers design choices of the world’s first K-band data converter. By avoiding established CMOS design principles and applying an ultra-high speed process, new capabilities emerged; a compact, single-core quantizer and design expertise led to breakthrough performance and layout and circuit simplifications are dominant design considerations.