Delivering Accurate High Frequency Satellite Measurements

Join Keysight engineers for a skill-building deep dive into high-frequency satellite test accuracy. This course guides you through the fundamentals and advanced practices of measurement accuracy with demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you will be able to confidently assess, minimize, and manage measurement uncertainty across critical satellite test parameters. Learn: Identify and reduce sources of measurement uncertainty in mmWave and wideband satellite systems. Apply traceability principles and uncertainty calculations to improve test confidence. Optimize power and noise figure measurements to support high-performance satellite missions. This course is ideal for RF, satellite, and systems test engineers, or anyone looking to gain a deeper understanding of how to ensure accurate, traceable measurements in high-frequency satellite test environments.

Introduction to Key 5G Engineering Technologies

Join Keysight engineers for a skill-building deep dive into the clever technologies behind 5G. This course guides you through the foundational innovations that make 5G possible, with demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you will be able to explain the key techniques that enable 5G performance—from beamforming to bandwidth optimization—and understand how they impact real-world deployments. Learn: How beamforming overcomes path loss at high frequencies to maintain strong connections. Why 5G uses wider bandwidths at mmWave and how this supports higher data rates. How bandwidth parts are used to manage latency and throughput efficiently. This course is ideal for wireless engineers, new grads, or anyone looking to gain a deeper understanding of how 5G works without getting lost in the weeds.

DC and AC Power Fundamentals

Join Keysight engineers for a skill-building deep dive into DC and AC power concepts. This course guides you through foundational power principles from voltage and current to AC waveforms and power transmission with demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you will be able to analyze, measure, and troubleshoot DC and AC power systems with confidence. Learn: How voltage, current, and resistance behave in both DC and AC circuits. How to interpret and apply power transmission and conversion principles. How to use oscilloscopes, multimeters, and power supplies to make accurate measurements. This course is ideal for electrical and electronics engineers, or anyone looking to gain a deeper understanding of power fundamentals and how to apply them using real-world test equipment.

Quantum Horizons Part 2 – Challenges and Industry Impact

Dive deeper into quantum computing with Keysight engineers. Part 2 of this bootcamp guides you through technical barriers, breakthrough applications, and the emerging future of quantum systems with demonstrations and practical insights you can apply in your lab today. By the end of this bootcamp, you’ll understand how to address real-world challenges and recognize the transformative potential of quantum across industries. Learn: Common technical barriers in quantum development and how engineers are overcoming them. How quantum is transforming fields like secure communications, sensing, and optimization. What’s on the horizon for quantum computing and what it takes to commercialize quantum technology. This bootcamp is ideal for engineers and enthusiasts interested in quantum computing systems, applications, and design.

Designing Memory Systems

Join Keysight EDA engineers for a skill-building boot camp on best practices for designing memory systems. This boot camp provides a basic grounding in the fundamentals of memory design. Building upon this foundation, subsequent lessons will set out a memory design and simulation workflow. The synergy of simulation and validation comes together in the lesson on DDR Spec and Compliance Test. Then look ahead to advanced memory design for the future. Learn: How to analyze buses to meet memory requirements. How to simulate and optimize memory systems. How to perform DDR simulation and compliance tests. This bootcamp is ideal for High-speed digital design engineers and anyone seeking a deeper understanding of memory design.

SATCOM System Design Bootcamp

Join Keysight engineers for a skill-building deep dive into SATCOM Network Simulation and Emulation. This bootcamp examines the key design considerations of an end-to-end satellite transmission chain related to sustained connectivity and Quality of Service. By the end of this bootcamp, you will be able to download a trial and use Keysight System Design simulation software and digital twin emulation hardware to illustrate real-world examples. Learn: Generate decodable link budgets for high-fidelity BLER and throughput analysis using realistic dynamic channels and accurate RF subsystems and antenna models. Design the RF transmitters and receivers in the ground station and on the satellite’s phased array antenna with high-fidelity RF modeling and intuitive visualization.   Emulate the handoff process, NTN beam management, and multi-beam co-channel interference to ensure sustained connectivity and Quality of Service. This Electronic Design Automation (EDA) bootcamp is ideal for RF System Design Engineers and anyone looking to better understand SATCOM System Simulation and Emulation.

Introduction to Fault Injection

Develop expertise in fault injection (FI) from basics to real case studies. Learn how glitches change values/control flow, exploit vulnerabilities, and bypass defenses. Apply proven hardware/software countermeasures and 11 reusable mitigation patterns. Learn: • How faults behave, how they’re injected, and the vulnerabilities they exploit • How to design and implement hardware and software countermeasures • How to judge attack impact, prioritize mitigations, and justify defense budgets This bootcamp is ideal for embedded/software engineers, security architects, and product teams building or evaluating security-critical devices and applications. This is Part 1 of the Secure Coding Program and should be completed first. After finishing, continue with Part 2: Introduction to Side Channel Analysis and Part 3: Memory Corruption.

Optimizing Automotive Ethernet Bootcamp

Dive deeper into automotive ethernet with Keysight engineers. This bootcamp guides you through the latest standards and emerging challenges, with insights to help you stay ahead of the curve. By the end of this bootcamp, you’ll understand more about what the future of automotive ethernet likely holds. Learn: The difference between ethernet and automotive ethernet. How automotive ethernet has evolved over time. How to utilize comprehensive testing solutions. This bootcamp is ideal for networking engineers who must efficiently design, analyze, and optimize their in-vehicle communications networks.

Arbitrary Waveform Generation Basics

Join Keysight engineers for a skill-building deep dive into arbitrary waveform generation. This course guides you through the principles, performance parameters, and optimization techniques of modern AWGs, with demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you’ll know how to configure, generate, and refine high-fidelity waveforms that match your real-world test scenarios.  Learn:  How sampling rate, memory depth, and ENOB impact waveform integrity. When and why to apply channel embedding and de-embedding techniques. How to accelerate waveform creation using Keysight software—no programming required.  This course is ideal for design, validation, and test engineers or anyone looking to gain a deeper understanding of signal generation fundamentals and how to apply advanced AWG techniques for precise, repeatable measurements

Design for Better Battery Life

Join Keysight engineers for a skill-building deep dive into designing for longer battery life in modern devices. This course guides you through optimizing power consumption with practical demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you will be able to identify energy drains, validate design changes, and measure battery performance with precision. Learn: How to profile energy consumption across key device states. Techniques to detect and analyze unexpected power events. Methods to optimize power design for extended battery life. This course is ideal for embedded and IoT engineers—or anyone looking to gain a deeper understanding of power-aware design and boost battery efficiency in connected devices.

Design and Optimize an RF Power Amplifier

Dive deeper into best practices for designing and optimizing RF power amplifiers. This boot camp provides a basic grounding in the various RF amplifier categories. Building upon this foundation, subsequent lessons will examine specialty topics you will encounter, with guidance on solving those challenges. Each lesson includes demonstrations and step-by-step guidance you can apply in your ADS simulations today to shorten your path to first-pass success. Learn: How to design an RF power amplifier and simulate the design robustness with 5G modulation. How to optimize your design to withstand RF coupling and non-linearity effects. How to simulate the effects of a power amplifier’s change in active impedance from the dynamic changes in the load pull from a phased array antenna. This bootcamp is ideal for Electronic Design Automation (EDA) RF design engineers and anyone seeking a deeper understanding of RF power amplifier design for 5G/6G circuits and systems.

Test High-Density EMSO Simulation from Lab to System

Join Keysight engineers for a skill-building deep dive into high-density electronic warfare (EMSO) threat simulation from lab to system-level validation. This course guides you through modern EMSO threat environment simulation, scalable RF architecture design, high-fidelity signal generation, and angle-of-arrival validation with technical demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you will be able to evaluate and design realistic, scalable EMSO threat simulation environments for advanced radar, EMSO, and electromagnetic spectrum operations testing. Learn: How to simulate dense, dynamic EMSO threat environments with high-fidelity RF signal generation Best practices for validating angle-of-arrival accuracy, spatial realism, and multi-emitter scenarios How scalable EMSO architectures support complex system-level testing across modern electromagnetic spectrum operations This course is ideal for EMSO, radar, RF, aerospace, and defense test engineers or anyone looking to gain a deeper understanding of high-density EW threat simulation and modern system-level validation workflows.

Introduction to Cellular V2X: Vehicle to Everything Communications

Join Keysight engineers for a skill-building deep dive into Cellular V2X technology. This course guides you through C-V2X fundamentals, standards, deployment strategies, and testing methodologies with demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you will be able to design, test, and deploy C-V2X solutions with confidence. Learn: C-V2X technology fundamentals and how it compares to DSRC for connected vehicle applications. Commercial deployment strategies and certification requirements for bringing C-V2X devices to market. Comprehensive testing methodologies to overcome 5G C-V2X implementation challenges and ensure reliable performance. This course is ideal for Automotive and telecommunications engineers or anyone looking to gain a deeper understanding of Cellular V2X technology and its role in enabling safer, more efficient connected and autonomous vehicles.

Best Practices for Optimizing Your EVM Measurement

Join Keysight engineers for a skill-building deep dive into optimizing error vector magnitude (EVM) measurements for modern wireless and RF systems. This course guides you through EVM fundamentals, spectrum analyzer configuration, CCDF and power statistics analysis, and advanced wideband and 5G/6G measurement techniques with demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you will be able to accurately measure, analyze, and troubleshoot EVM performance using Keysight signal analysis solutions and RF measurement best practices. Learn: Optimize spectrum analyzer and vector signal analysis settings to improve EVM measurement accuracy and repeatability Analyze modulation quality, CCDF behavior, and waveform impairments that impact wireless transmitter performance Troubleshoot EVM degradation in advanced wideband, MIMO, 5G, and sub-terahertz wireless systems This course is ideal for RF engineers, wireless design engineers, validation engineers, or anyone looking to gain a deeper understanding of EVM optimization, modulation analysis, and advanced wireless measurement techniques.

Superconducting Quantum Design Challenges

This bootcamp guides you through the design of superconducting qubits and quantum amplifiers with product demonstrations to illustrate the concepts you can apply in your design flow today. By the end of this bootcamp, you will have a pathway toward realizing robust and scalable superconducting quantum chips, accelerating progress in quantum computing and quantum information processing.   Learn: Design challenges of superconducting quantum chips. To bridge the knowledge gap for microwave engineers transitioning into the quantum field. How EDA tools can be used to facilitate the design of both superconducting qubits and quantum amplifiers by providing solutions for layout, electromagnetic simulation, quantum parameter extraction, and nonlinear circuit analysis. How the complexity of scaling these systems can be managed with EDA tools. How quantum amplifiers play a critical role in enhancing signal fidelity and enabling sensitive readout operations within superconducting quantum systems by efficiently amplifying quantum signals while suppressing noise.   This bootcamp is ideal for quantum or microwave hardware engineers who must efficiently design, analyze, and optimize superconducting quantum chips including qubits and quantum amplifiers.

Oscilloscope Front End Design Basics

In this course, join oscilloscope designer Mike Lujan as he breaks down the essentials of oscilloscope front-end design. From fundamental concepts to practical tradeoffs, you’ll gain a better understanding of how oscilloscope components work and how design choices affect your measurements. Learn: Discover how oscilloscope front ends operate, including key components like attenuators, preamps, and acquisition boards and their roles. Understand important design tradeoffs such as bandwidth, noise, rise time, and hardware layout that influence measurement accuracy. Gain practical tips for optimizing oscilloscope setup, selecting the right probes, and improving signal integrity in your lab. This bootcamp is ideal for electrical, RF, and test engineers looking to deepen their understanding of oscilloscope design and measurement techniques.

Jitter Analysis Using Oscilloscopes

Join Keysight engineers for a skill-building deep dive into jitter analysis using oscilloscopes. This bootcamp guides you through the fundamentals and advanced techniques of jitter characterization with hands-on demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this course, you will be able to accurately measure, analyze, and interpret jitter effects in high-speed digital signals to improve your system performance. Learn: How to identify and quantify different types of jitter using Keysight oscilloscopes. Practical techniques to separate random jitter (RJ) from deterministic jitter (DJ). Methods to interpret jitter data to diagnose signal integrity issues and optimize designs. This bootcamp is ideal for signal integrity engineers, design validation engineers, and anyone looking to gain a deeper understanding of jitter characterization and mitigation using Keysight oscilloscopes.

Phased Array Validation and Test Bootcamp

Join Keysight EDA engineers for a hands-on bootcamp focused on designing, testing, and optimizing phased array antennas. This bootcamp begins with core principles of phased array design and calibration, then progresses to advanced over-the-air testing techniques and real-world use cases in 5G, 6G, and satellite communications. Each lesson bundle includes practical demonstrations and step-by-step guidance to help you streamline your workflow and achieve first-pass success. Learn: ·      How to avoid common design pitfalls in phased array systems. ·      The unique testing challenges of 5G/6G and SATCOM applications. ·      How to integrate simulation and validation into a complete design and test workflow. This bootcamp is ideal for RF and antenna design engineers, system integrators, and anyone seeking deeper insight into phased array simulation and validation.

Design and Test a Phased Array Antenna

Dive deeper into the design (simulation) and test (validation) of phased array antennas. Building upon this foundation, subsequent lessons will examine specialty use cases you will encounter, with guidance on solving those challenges. Each lesson includes demonstrations and step-by-step guidance you can apply in to shorten your path to first-pass success. Learn: How to avoid the pitfalls of designing phased arrays. The unique challenges of 5G/6G and SATCOM use cases. How to integrate simulation and validation into a complete design and test workflow. This Electronic Design Automation (EDA) boot camp is ideal for RF and antenna design engineers and anyone seeking a deeper understanding of phased array simulation and validation.

Designing an RF Board Design Flow

Dive deeper into RF board design with Keysight engineers. This EDA bootcamp shows how to solve today’s design challenges resulting from RF applications operating at ever-higher frequencies and bandwidths with tutorials and step-by-step guidance you can apply in your designs today. Learn: How you can import an RF Printed Circuit Board design and accurately simulate only the critical RF paths without any layout modifications to ensure specs such as loss, matching, coupling interference, and radiation are met before building hardware. Why integrated electromagnetic (EM) and circuit co-simulation is so important to accurately account for physical structures such as RF connectors, packaging, and printed antennas on RF performance to meet specs in one pass. How automated EM-circuit co-simulation in the latest RF board design flow eliminates weeks of tedious, error-prone manual integration of traditional disjointed EM and circuit analysis data. This EDA bootcamp is ideal for RF Circuit designers and anyone looking to gain a deeper understanding of how to eliminate wasteful cut-and-try iterations by accurately simulating the RF paths on the RF board design before building hardware and meeting specs in one pass.