Deep Dive into O-RAN

O-RAN (Open Radio Access Network) is transforming mobile network deployment by enabling open, intelligent, and interoperable RAN components built on standard hardware. Understanding its architecture, functional splits, and test requirements is key to building flexible, vendor-neutral 5G networks. Learn: The two core O-RAN principles: openness and intelligence Functional splits (including Option 7.2) between O-RU, O-DU, and O-CU The goals and roles of O-RAN Alliance work groups Common challenges in interoperability, conformance, and security Keysight O-RAN test solutions, including Open RAN Studio, UeSIM, RuSIM, DuSIM, and RICtest  This course is ideal for wireless engineers, network architects, and system integrators developing and validating 5G O-RAN systems.

Deep Dive into Oscilloscopes Bootcamp

Dive deeper into oscilloscopes with Keysight engineers. This bootcamp guides you through the essential capabilities of benchtop oscilloscopes 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 configure your oscilloscope and thoroughly test your electrical devices. Learn: Oscilloscope setup and probing tips that will save you time in the lab. Advanced oscilloscope measurement capabilities that will give you insight into your device under test. How to use an InfiniiVision X-Series oscilloscope. This bootcamp is ideal for test engineers and anyone looking to gain a deeper understanding of oscilloscopes.

Smith Chart Basics and VNA Paperclip Test

This course demystifies the complexity of the Smith chart and demonstrates how a vector network analyzer (VNA) can be used to visualize and characterize even simple objects—like a paperclip—on the Smith chart.  Learn:  What is the Smith chart?  The importance of the Smith chart for impedance matching. How to use a VNA to plot the Smith chart.    Whether you're new to RF engineering or looking to deepen your understanding of impedance and reflection behavior, this session offers practical insights into one of the most powerful tools in RF design. 

Grid Frontier and EV Charging Infrastructure Bootcamp

Join Keysight engineers for a skill-building deep dive into grid modernization and EV charging infrastructure. This bootcamp guides you through grid interoperability challenges, technical standards, and potential vehicle-to-grid (V2G) implementation strategies 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 and test EV charging systems that seamlessly integrate with modern grid infrastructure.  Learn:  Modern grid demand challenges, issues with renewable energy integration, and vehicle-to-grid (V2G) implementations. Technical barriers to V2G implementation, regulatory requirements, and bi-directional power communication protocols. EV charging standards evolution, deployment timelines, and testing methodologies for next-generation infrastructure.  This bootcamp is ideal for engineers and technicians from the automotive and energy sectors working on the deployment of EV charging technologies, or anyone looking to gain a deeper understanding of grid modernization challenges and the critical testing processes that enable reliable EV-grid integration. 

Memory Corruption

Develop practical skills in identifying and preventing memory corruption vulnerabilities. Learn how buffer overflows, arbitrary writes, and off-by-one errors arise, how attackers exploit memory flaws, and how to systematically find, assess, and fix them. Learn: • Common memory corruption classes and root causes • How to discover and evaluate vulnerabilities • Secure coding best practices to prevent exploitation This bootcamp is ideal for embedded/software engineers, security architects, and product teams building or evaluating security-critical devices and applications. This is Part 3 of the Secure Coding Program and builds directly on Part 1: Introduction to Fault Injection and Part 2: Introduction to Side Channel Analysis, which should be completed first for the best learning experience.

Space and Satellite Development and Approaches

The surge in global demand for connectivity, observation, and exploration has accelerated innovation across the satellite industry. As space transitions from a government-led domain to a thriving commercial ecosystem, engineers face new challenges in design, deployment, and mission assurance. Learn: How satellite development has evolved from governmental programs to commercial and commoditized ventures. The key differences and technical challenges in deploying LEO and GEO satellite systems. Three major technology drivers shaping the New Space era: Optical Inter-Satellite Links, Software-Defined Satellites, and Phased Array Antennas. How Keysight solutions support design, verification, and mission assurance across the full satellite lifecycle. This course is ideal for engineers, technicians, and professionals working in satellite communications, space systems design, and New Space innovation.

Impact of 5G Coexistence with Radar and Satellite Systems

Join Keysight engineers for a skill-building deep dive into 5G spectrum coexistence with radar and satellite systems. This course guides you through shared spectrum fundamentals, RF interference mechanisms, coexistence analysis techniques, and mitigation strategies using Keysight spectrum analysis and signal monitoring solutions with demonstrations and step-by-step workflows you can apply in your lab or field environment today. By the end of this course, you will be able to identify coexistence-related RF impairments, analyze interference between 5G and critical systems, and implement effective coexistence validation strategies. Learn: Analyze interference mechanisms between 5G, radar, and satellite systems in shared and adjacent RF spectrum bands Use spectrum monitoring and signal analysis techniques to detect, classify, and troubleshoot coexistence-related RF issues Apply mitigation strategies and coexistence testing workflows to improve RF system performance and spectrum reliability This course is ideal for RF engineers, wireless communications engineers, spectrum management specialists, aerospace and defense engineers, or anyone looking to gain a deeper understanding of 5G coexistence analysis, interference mitigation, and shared-spectrum RF validation using Keysight technologies.

Fundamentals of Breach and Attack Simulation

Dive deeper into adversarial exposure validation (AEV) with Keysight engineers. This course guides you through essential AEV principles, powered by breach and attack simulation (BAS). Included are 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 assess your security posture, configure simulation tools in your tool stack, and validate your defenses with precision.  Learn:  How to deploy and configure adversarial exposure validation tools using breach and attack simulation. How to execute data exfiltration assessments and validate defenses like WAFs. How to operationalize AEV workflows across hybrid environments. This bootcamp is ideal for security engineers, DevSecOps professionals, or anyone looking to gain a deeper understanding of security validation and posture analysis using adversarial exposure validation and breach and attack simulation. 

Spectrum Monitoring for Satellite Communications

Join Keysight engineers for a skill-building deep dive into spectrum monitoring techniques for satellite communications. This course guides you through RF signal detection, interference identification, spectrum occupancy analysis, and operational monitoring workflows using Keysight spectrum analysis solutions and real-world satellite scenarios with demonstrations and step-by-step guidance you can apply in your lab or field environment today. By the end of this course, you will be able to detect and classify satellite RF signals, characterize interference sources, and implement effective spectrum monitoring strategies for reliable satellite communications performance. Learn: Detect, identify, and classify satellite RF signals using spectrum analysis and real-time signal observation techniques Analyze spectrum occupancy and characterize narrowband, broadband, and transient interference in satellite frequency bands Apply operational spectrum monitoring workflows using Keysight tools to improve RF situational awareness and system reliability This course is ideal for RF and satellite communications engineers, spectrum monitoring specialists, and test engineers or anyone looking to gain a deeper understanding of satellite RF environment monitoring, interference analysis, and operational spectrum management using Keysight technologies.

Spectrum for 6G Research into Sub-Terahertz

Join Keysight engineers for a deep dive into the sub-terahertz bands 90 to 300 GHz. With each cellular generation, researchers review new spectrum allocations and work on improving the use of existing spectrum. The sub-THz band allocated for 5G is a focus for 6G research because it can support extremely high data rates. This course guides you through methods to explore sub-THz bands from 90 to 300 GHz with research 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 understand why new options like Sub-Terahertz frequencies are under evaluation for spectrum for 6G. Learn:   Get to 100 gigabits per second (Gbps) to 1 terabit per second (Tbps) data throughput to support 6G research. Understand channel propagation characteristics to evaluate system performance in sub-terahertz frequency bands. Perform 6G channel sounding research with wide bandwidths at D-band. This course is ideal for: RF research engineers or anyone looking to gain a deeper understanding of spectrum options for 6G.

Debugging Automotive CAN Buses with an Oscilloscope

In this course, Keysight engineers equip you with the skills you need to debug and analyze automotive electronic signals using oscilloscopes through an in-depth exploration. They guide you through capturing, decoding, and analyzing signal behavior across automotive protocols and power domains using demonstrations and step-by-step instructions that you can implement in your lab right away. By the end of this course, you will be able to confidently identify and troubleshoot signal issues in modern vehicle systems using advanced oscilloscope tools. Learn: How to decode and validate serial protocols like CAN, LIN, FlexRay, and SENT. Techniques for capturing and analyzing transient and timing-critical events. Methods for isolating and debugging power integrity and signal quality issues. This course is ideal for automotive hardware and test engineers or anyone looking to gain a deeper understanding of oscilloscope-based debugging for electronic vehicle systems.

DDR5 Memory Design - The Basics

The insatiable desire for more bandwidth in data centers has led to intense pressure to push DDR5 memory technology out to market faster. Learn: What the changes from DDR4 to DDR5 are, and the new EDA simulation and measurement techniques. How channel simulation technology (using IBIS-AMI modelling) has been adapted specifically for single-ended signals with an external clock. Keysight Advanced Design System (ADS) with SerDes and memory simulation bundle W3622B. This Electronic Design Automation (EDA) bootcamp is ideal for signal integrity and hardware engineers designing, simulating, or validating DDR5 systems.

Designing for Power Integrity - Advanced Topics

This is the Advanced Topics for Power Integrity Design. Power Integrity experts explore Power Delivery Networks topics and approaches to avoid design pitfalls using Keysight ADS with the Power Integrity bundle. Learn: The importance of flat target impedance design and the benefits of state-based averaged models for dc-dc converter voltage regulator modules. How to measure and model low impedance inductors and capacitors. 2000 Amp PCB Power Delivery Design, Simulation, and Measurement Challenges. How to design for power supply non-invasive stability margin (NISM). This Electronic Design Automation (EDA) boot camp is ideal for high-speed digital design engineers and anyone seeking a deeper understanding of designing for power integrity in power delivery networks.

Quantum Horizons Part 1 – Core Concepts and System Design

Step into a realm where bits become qubits and impossible problems find elegant solutions. Part 1 of this bootcamp guides you through quantum fundamentals and the design of superconducting systems, with demonstrations and step-by-step guidance you can start applying in your lab today. By the end of this bootcamp, you will be able to confidently explain how qubits work, compare quantum platforms, and begin designing quantum systems. Learn: Foundational quantum concepts, including qubits, superposition, and entanglement. How to build and model superconducting quantum systems. How to evaluate different quantum platforms and their core operating principles. This bootcamp is ideal for engineers and enthusiasts looking to build a solid foundation in quantum computing theory and design.

Signal Integrity Design - The Basics

Dive deeper into advancing signal integrity in high-speed digital designs. This EDA bootcamp begins with foundational concepts and analysis techniques, then progresses through simulation, design strategies, and advanced troubleshooting methods using real-world tools and examples.  Each lesson bundle includes practical demonstrations, expert insights, and step-by-step guidance to help you confidently tackle signal integrity challenges and optimize your designs.  Learn:  How to identify and resolve common signal integrity issues early in the design cycle. The role of simulation and analysis in achieving robust, high-speed performance. How to apply advanced techniques and documentation best practices for long-term success. This bootcamp is ideal for hardware engineers, PCB designers, signal integrity specialists, and anyone involved in high-speed digital design looking to enhance their skills and workflow. 

Signal Integrity Testing and Network Analysis

Join Keysight engineers for a skill-building deep dive into high-speed signal integrity and network analysis. This bootcamp guides you through the essential theory, tools, and hands-on measurements you need to confidently evaluate high-speed digital interconnects. With demonstrations and step-by-step guidance you can start applying in your lab today, you’ll walk away with practical skills for characterizing and improving signal quality. By the end of this course, you will be able to use TDR and VNA tools, interpret S-parameters and eye diagrams, and troubleshoot real-world signal integrity issues across PCBs and backplanes. Learn: How transmission lines and impedance mismatches impact high-speed signals. How to configure and perform signal integrity measurements using VNAs and TDRs. How to visualize and debug performance using eye diagrams and S-parameters This bootcamp is ideal for signal integrity engineers, hardware designers, or anyone looking to build hands-on measurement skills and understand how signal quality affects modern high-speed systems.

Design for Power Integrity - The Basics

Dive deeper into Power Delivery designs. This bootcamp features Steve Sandler, a Keysight ADS-certified expert. Steve provides a solid foundation for Power Delivery Networks designs and approaches to avoid design pitfalls using Keysight ADS with the Power Integrity bundle. Learn: The importance of flat target impedance design and the benefits of state-based averaged models for dc-dc converter voltage regulator modules. How to measure and model low impedance inductors and capacitors. How to design for power supply non-invasive stability margin (NISM). This Electronic Design Automation (EDA) bootcamp is ideal for high-speed digital design engineers and anyone seeking a deeper understanding of designing for power integrity in power delivery networks.

RF System Design with Digital Twins

Dive deeper into best practices for designing RF Systems with EDA. A key to achieving faster, lower-cost development is a Model-based Systems Engineering (MBSE) approach, integrating data through models and predicting performance through ‘digital twin’ architectures. Learn: How Keysight’s System Design software connects to and enables your MBSE flow. How critical it is to link simulation and measurements to achieve these goals. How to unify design and validation in a Digital Twin workflow. This Electronic Design Automation (EDA) bootcamp is ideal for RF System design engineers and anyone seeking a deeper understanding of SATCOM and 5G/6G system design simulations.

O-RAN Demo

Join Keysight engineers for a skill-building deep dive into O-RAN validation and testing. This course guides you through O-RAN system architecture, protocol emulation, real-time RIC testing, and performance validation; complete 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 validate multi-vendor O-RAN components, streamline your test topology, and improve system performance from fronthaul to user experience. Learn: How to emulate, validate, and troubleshoot cross-domain O-RAN systems. Strategies for testing real-time RIC, O-DU/O-CU, and UE integration. Best practices for benchmarking latency, throughput, and conformance. This course is ideal for wireless system engineers, O-RAN developers, or anyone looking to gain a deeper understanding of O-RAN testing and validation workflows.

Designing with Signal Integrity for Digital Standards

Dive deeper into designing with Signal Integrity with EDA. This boot camp provides a solid foundation in Signal Integrity concepts. Keysight technical experts apply these concepts to current digital standards covering USB, PCIE and Chiplets. Concepts for both design and validation are included. Learn: The importance of designing the right workflow for signal integrity. How PAM4 creates unique challenges for PCIe6. How the leading standards for Chiplets compare. How the Photonic Designer ensures industry-leading accuracy with advanced simulation technologies built on physics-based models. This Electronic Design Automation (EDA) boot camp is ideal for high-speed digital design engineers and anyone seeking a deeper understanding of designing for signal integrity in digital standards use cases.