Instrument Automation with Python

This paper explains the fundamentals of remote instrument control, including the VISA and SCPI standards, and walks through a Python script that automates a simple trace capture on an oscilloscope.

The Essential Signal Generator Guide Building a Solid Foundation in RF – Part 1

Choosing the right signal generator is essential for obtaining trustworthy test results and accelerating time-to-market. This paper covers the basic functionalities, types, and key specifications of signal generators in detail. Signal generators are crucial in eliminating uncertainties in test results for engineers working on consumer electronics, wireless communications, or radar devices. They provide precise and stable test signals necessary for characterizing devices, even in bandwidth-limited and interference-heavy environments. By allowing engineers to apply impairments, signal generators help test designs within and beyond their limits, ensuring reliability and robustness. RF signal generators, including analog and vector types, create necessary waveforms for testing RF applications. Engineers use them to generate repeated or non-repeated waveforms for designing, testing, and manufacturing systems and components. Signal generators simulate real-world signals, enabling comprehensive evaluation of electronic systems’ performance and behavior.

Electronic Load Fundamentals | Keysight

Download this white paper to understand the fundamentals of an electronic load and how to select an electronic load that best fits your test requirements.

Advanced Electrochemical Impedance Spectroscopy (EIS) for Battery Testing

In this paper the electrical characterization of cells using calibrated and accurate electrochemical impedance spectroscopy (EIS) in a wide frequency range with micro-Ohm resolution is presented. The obtained EIS data is interpreted by electrochemical circuitry modeling. The EIS results are put into perspective of materials science and electrochemical lab methods.

Automotive Ethernet: Enabling the Future of Autonomous Driving

Major innovation drivers in the automotive industry span three categories: enhanced safety, a cleaner environment, and improved convenience with connectivity. To achieve these goals, automakers, automotive suppliers, governments, academia, and even nontraditional automotive players such as wireless chipset makers, mobile device makers, and wireless service providers are developing advanced driver-assistance systems (ADAS), connected car technologies, and, ultimately, autonomous vehicles.

Eliminate Measurement Errors and Achieve the Greatest Accuracy Using a DMM

Accelerate your Digital Transformation with ADS Python Automation

Keysight ADS Python APIs transform modern RF and high-speed designs and unlock a new generation of personal productivity, enterprise workflows, and AI/ML exploration.

AI and Software Testing — Building Systems You Can Trust

In this white paper, explore the complexity of artificial intelligence (AI) and software testing. Get insights on AI trustworthiness, bias, and more.

Everything You Need to Know About Wi-Fi 7

The IEEE 802.11be standard introduces several new features for improving WLAN efficiency, capacity, and coverage. Features such as multi-link operation (MLO) and multiple resource units (multi-RUs) increase the number of configurations and test scenarios to validate a device thoroughly. In addition to physical-layer testing, test engineers must emulate signaling to verify interactions between access points (APs) and stations (STAs) and the performance of Wi-Fi 7 new features under real-world conditions. Read the white paper to explore the key features and testing challenges of Wi-Fi 7 (IEEE 802.11 be) and learn how to conduct Wi-Fi 7 RF testing with signaling and throughput testing.

Zero Trust Compliance for Everyone

Zero Trust Compliance for Everyone

Spectrum Analyzer Basics

Learn about the basic signal analyzer and how today’s digital technology and digital signal processing have advanced spectrum analyzers providing many more capabilities.

Journey of a Signal

Let’s learn about everything your signal encounters along this journey to understand how an oscilloscope probe works. Learn more!

Jitter Analysis: The Dual-Dirac Model, RJ/DJ, and Q-scale

The dual-Dirac model is a tool for quickly estimating total jitter defined at a low bit error ratio, TJ(BER). The total jitter of a system is then estimated from RJ and DJ(δδ).

Four Measurements You Can Perform on the Go

This white paper discusses the importance of commonly made radio frequency field measurements: real-time spectrum analysis (RTSA), noise figure, over-the-air measurements (OTA), and cable and antenna test (CAT).

Quick Guide: Keysight’s Four-Step DDos Mitigation Process

Learn how to create realistic DDoS attack simulations, test your network infrastructure, and harden your defenses against volumetric attacks.

How AI / ML Networks Differ from Traditional Networks

Artificial intelligence (AI) and machine learning (ML) are driving big changes in data center networks — including new requirements, traffic patterns, and technologies. Discover how Keysight solutions help optimize AI networks.

Understanding Noise and Sensitivity in Spectrum Analyzers

Understand your analyzer’s sensitivity capability to determine if it will adequately measure your low-level signals.

Exploring the 6G Spectrum Landscape

New spectrum is key to delivering more services and data rates to users. This white paper will look at three 6G frequency candidates: 7-24GHz, 90-300GHz, and optimization of the spectrum below 7GHz.

TDECQ Part 1: Making Accurate and Repeatable Compliance Measurements

TDECQ is the acronym used to describe “transmitter dispersion and eye closure quaternary”. This is a power penalty metric that describes how much extra power is required from a transmitter, relative to an ideal transmitter, to compensate for both non-ideal transmitter waveforms and the impact of chromatic dispersion. It is similar to the transmitter dispersion penalty (TDP) metric used in NRZ optical communications standards. It was developed in the IEEE 802.3bs standard and improved in the IEEE 802.3cd standard. It is a convenient way to specify the performance of a PAM4 transmitter, as it aggregates many transmitter attributes into a single metric, and the metric directly indicates the impact a transmitter’s imperfections will have on overall system-level performance.

Emulation Test on Electric Vehicles

Design and test engineers are turning to emulation technology to reduce design verification cycle times and reduce the cost of test for electric vehicles (EV). Learn more about the emulation tools that are helping automotive makers and their Tier 1 suppliers design and develop better EV batteries, powertrains, and charging interoperability between EVs and charging stations.