PSI University Videos Page
The oscilloscope has been a primary tool for electronic design engineers since the invention of that instrument, many years ago. The first decades of oscilloscopes were “analog” in nature.
The WT5000, the Next Generation in Precision of Yokogawa’s Power Analyzers product line. A versatile platform that delivers extraordinary precision and exceptional performance for the most demanding applications.
Engineers in transportation, power generation, consumer electronics and industrial equipment are facing complex measurement challenges as they adopt faster development cycles to meet changing market requirements while complying with stringent quality standards. In this 45 minute webinar you will learn about how next generation power analyzers, such as the new Yokogawa WT5000, can help engineers get reliable and actionable insights from their test bench or measurement setup.
This includes : Multi-channel measurements, Mechatronic analysis and motor evaluation, Advanced filtering, harmonics and noise, Modular architecture and platform extensibility and Guaranteed accuracy and accredited calibration.
The Yokogawa DLM3000 oscilloscope features a brand-new computing platform designed to provide more than raw data. Built-in measurements and an optional Power Supply Analysis package combine with the deep memory and innovative history features to provide engineering insights.
Interview with Wolfgang Gleißner, T&M Marketing & Support Manager of Yokogawa T&M Germany at Electronica 2018. Listen this few minutes video to get to know the highlights of the latest news and developments from Yokogawa T&M.
Do you need to log your power measurement directly to a PC? WTViewerE can connect to a variety of Yokogawa power analyzers to configure the settings, take and view measurements, and log data to a CSV file with ease. In this video, application engineer Kourtney Morrison goes through six easy steps to get you started using WTViewerE.
Capture, display, record and analyze the widest variety of electrical and physical parameters in automotive, transportation, electronics, energy and mechatronics.
In this video Lee Thomas, Yokogawa T&M Sales Manager in the UK showcases the Yokogawa DL350 ScopeCorder.
Complete measurement, complete portability.
How can you measure individual phase power in WYE or Delta connected three phase systems?
Using the standard Delta computation function, available on the Yokogawa WT5000 Precision Power Analyzer, you can now measure and compute individual phase powers for your three phase systems connected in either WYE or Delta configurations.
This video will introduce the key features, benefits and values of Yokogawa DLM3000 Mixed Signal Oscilloscope. Yokogawa DLM3000 is widely used by the customers in transportation, energy, home appliance, etc., areas.
The WT5000 is a versatile platform that delivers extraordinary precision and exceptional performance for the most demanding applications.
Find out the key features and benefits of the WT5000 Precision Power Analyzer in this video.
This video will introduce the values and key features of Yokogawa’s DL850EV ScopeCorder. DL850EV combines a mixed-signal oscilloscope and portable data acquisition recorder into a single platform which can capture both high-speed transient events, and long-run trends.
DL850EV is widely used in the industries of automotive, power electric and mechatronics, etc.
Description: As the creator of the world’s first 8 channel oscilloscope, the DLM5000 is Yokogawa’s latest addition to our line-up and takes you beyond 8 channels. The adaptability of the DLM5000 is a key requirement during the development of high-performance and intelligent power-semiconductor technologies and mechatronics applied in a modern electric vehicles, motor controls and energy efficient electronic designs.
How can you compare SENT data to analog data? The Yokogawa DL850EV ScopeCorder data acquisition system makes it easy by plotting decoded SENT data channels simultaneously with the corresponding analog sensors and signals, creating a one-box solution to this essential design validation and debugging task. In this video Application Engineer Coty Harrison demonstrates these unique capabilities step-by-step.
The Yokogawa CA700 Portable Pressure Calibrator is equipped with a silicon resonant sensor that uses Yokogawa proprietary DPHARP technology. The CA700 can measure pressures with an accuracy that is within ±0.01% of rdg*, making it one of the most accurate portable pressure calibrators on the market. This highly accurate portable pressure calibrator features a variety of functions that includes a wide selection of measuring ranges, as found/as left data storage, and memory capacity to store calibration procedures. The Yokogawa CA700 provides an accurate and efficient calibration and verification tool for pressure/differential pressure transmitters and other types of field devices for commissioning or regular inspection.
Nathan Bryngelson will be demonstrating how to perform a calibration test on the Yokogawa WT300 and 300 E series using the Yokogawa LS3300 AC Power Calibrator.
In this video, we walk you through the installation process of the Teledyne LeCroy MAUI Studio oscilloscope software. For additional information visit, teledynelecroy.com/mauistudio.
In this video, we walk you through how to navigate the Teledyne LeCroy MAUI Studio oscilloscope software User Interface. For additional information visit, teledynelecroy.com/mauistudio.
In this video, we show how to use LabNotebook with the Teledyne LeCroy MAUI Studio oscilloscope software. With LabNotebook, you can save your signals, setups and screenshots to share with a colleague or add to a report. For additional information visit, teledynelecroy.com/mauistudio.
In this video, we show how you can use scripts to exchange data in real time between Teledyne LeCroy MAUI Studio oscilloscope software and third-party applications like MATLAB, Excel and LabVIEW. For additional information visit, teledynelecroy.com/mauistudio.
In this video we show you how to decode and analyze serial data signals by importing them into the Teledyne LeCroy MAUI Studio oscilloscope software. For additional information visit, teledynelecroy.com/mauistudio.
Delivering consistently accurate results is integral for the flexographic industry. When a customer in this industry sought to update their analog inspection system, they sought the expertise of ClearView Imaging and Matrox® Imaging to provide an automated vision-system-driven mounting machine. Comprising a Matrox Imaging vision controller and software, this customized system is able to locate precise targets on flexographic plates, using advanced illumination techniques and software tools to address noise, locate shapes, and matching patterns.
Embedded computing systems are rapidly increasing in power densities, making thermal solutions a major design concern. In most cases, designers prefer a predominantly conduction cooled approach, which provides the highest reliability.
ACT’s Isothermal Card Edge, or ICE-Lok™ wedgelocks, are designed to enhance card-to-chassis conduction by enhancing the heat flow through the wedgelocks by making additional contact between the card and the chassis. Learn more about ICE-Lok™ and see how it is utilized to improve thermal efficiency in embedded computing systems. ICE-Lok™ is a patented product. Copyright ACT 2018. All rights reserved.
Teledyne LeCroy current probes are supported on every channel of every oscilloscope we make for the widest view of all your signals.
- 30 - 500 A input with high sensitivity for precise low-current measurements
- Powered from the oscilloscope, no external power supply required
- Like using your 3rd-party probe/sensor? Use the CA10 to adapt it to Teledyne LeCroy oscilloscopes
For the most efficient validation, get the most analog channels and longest memory to capture your entire power sequence.
- Start with WaveRunner 8000HD’s 8 analog channels, 16 with our OscilloSYNC™ option.
- Add MSO capability for 16 digital lines, no sacrifice of analog channels.
- Use 5 Gpts memory to capture the entire power on/off sequence.
- Use automated measurements with Pass/Fail testing to validate timing over multiple acquisitions.
Watch the video to see how.
Test chambers that never compromise on performance, safety, or environmental responsibility
Not all chambers offer the same performance or quality. All reverberation, fully and semi-anechoic chambers provided by AR RF/Microwave Instrumentation, offer customers the highest level of performance, quality, and support. One unique advantage is the pan shield design, which allows for premium performance and seamless construction over older designs techniques, such as wood core shielded chambers. The pan-type shield's baseline performance is far more reliable and exceeds 100 dBA level of attenuation up to 40 GHz without any modifications or add-ons. This performance provides an excellent testing environment for your testing needs.
Selecting the right cable is crucial for both Microwave and mmWave applications. Indeed, measurements are not accurate nor reliable unless appropriate cables are used. This video outlines how to select the most appropriate cable for any given purpose.
During microwave and mmWave measurement processes, a cable's reliability – particularly its phase stability – is critical. Junkosha has developed a cable with minimal phase fluctuation against bending, which has been achieved through innovative materials and processing technology.
When measuring the performance of the DUT, if the shift of the data transmission timing – also known as skew – occurs between multiple cable connections, the performance of the DUT cannot be accurately determined. Junkosha has developed a stable transmission rate cable against bending.
Cable reliability, especially phase stability against Temperature change, is of critical importance in microwave and mmWave measuring. Junkosha has developed cables with excellent phase stability against temperature change through innovative materials and processing technology.
Cable flexibility is important for stable measurement and wiring efficiency between the measuring equipment and device under test. Junkosha provides flexible and low resilience coaxial cables which improve workability with complex wiring and reduces the risk of damage to the instruments and DUT.
When a relay fails, the test system becomes unreliable leading to a suspension of production. Getting it back up and running becomes the main priority. The first step is to accurately diagnose the fault.
Signal switching is mechanical in most test systems, and as such, is the most likely component of a test system to fail due to normal wear and tear or damage due to the switch specs being exceeded, either accidentally during debug or while testing a faulty DUT.
When a failure occurs, production output can be adversely impacted, and getting a test system quickly back up and running becomes the main priority of the operations team. Costly and time-consuming diagnosis and repair cycles cannot be tolerated.
Fortunately, some methods can be implemented that can shave weeks off typical turn-around times, and even predict failures in advance to allow for better maintenance planning. This video will teach you how to optimize your test system's productivity while minimizing costly downtime.
When architecting an automated test system that includes Microwave instrumentation, whether for military, aerospace, automotive or semiconductor applications, it is often advantageous to design in a signal routing or switching system. This video will explain how switching subsystems can bring great benefit to an automated test strategy, reducing overall cost and increasing the throughput of test. Switching signals at microwave frequencies offers some unique challenges that must considered to ensure reliable and repeatable test results.
Electronic control units (ECUs) are used in a wide range of electronic products. During their development, they are typically exercised by a test system which simulates the real-world environment in which the ECU will operate – this is known as Hardware-in-the-Loop HIL simulation. An ECU usually relies on information from many connected sensors to determine how it should function. These sensors are often working in hostile environments, such as a car engine bay, and failures often occur due to corrosion, aging, damage or even faulty installation. Safety-critical controllers usually go through a certification process where a series of common real-life faults, such as short and open circuits, are introduced by the HIL simulation system and the ECU response is checked to see that it operates in a safe and predictable manner. Automated Fault Insertion solutions allow these verification tests to be run in a controlled and repeatable way. In this video, we will highlight the types of faults that can be injected and look at some of the COTS hardware available.
This video discusses upgrading an automatic electronic functional test process from legacy Automatic Test Equipment (ATE) to the latest industry-standard platform. VXI was one of the first successes in modular test platforms and has served industries such as Aerospace and Defense for over 30 years. However, many test and measurement companies are now no longer supporting the standard. While the wide availability of PXI switching modules makes the choice of migrating VXI switching hardware relatively easy, there are also potential issues to consider which we discuss in the video along with the advantages of making a move from VXI to PXI.
Crosspoint matrix switches are one of the most flexible switching choices you can select for your next functional test system—essentially, a crosspoint matrix switch can connect virtually any test resource to virtually any test point on the DUT (Device Under Test). But like any selection you can make, there can be pros and cons in utilizing a crosspoint matrix: a test engineer needs to carefully weigh the specifications of the DUT to be tested in order to make the right switching choice for the test application being considered.
In this short video, we will explain how a matrix works, different ways to configure them, what questions to ask concerning the application and more. We will also compare building a large matrix with multiple switch matrices versus selecting a totally integrated switch matrix.
Learn about our PXI & PCI Programmable Resistor modules for Sensor Simulation. These modules can be used in many applications to simulate, for instance, resistive sensors such as those used for temperature, strain, light, force and level measurement. The resistors enable you to build cost reductions into your test system design without having to physically simulate the environment of the sensor.
Advantages of these Programmable Resistors include:
- They replace the need for real sensors
- No need to physically simulate sensors environment
- Allow you to reuse between test applications and give you accuracy, speed, and repeatability.
An additional advantage - the physical complexity of the test set-up can be simplified because you are potentially reducing the amount of cabling and discrete components required and the simulation is confined to test rack space.
This video demonstrates how to operate Pickering Switch & Simulation modules in National Instruments' LabVIEW™ System Design Software.
Our software drivers are capable of supporting all of our 1,000+ switching and simulation products in PXI, LXI and PCI formats and include a LabVIEW wrapper to permit full operation of the Pickering products from the LabVIEW environment. These wrappers are normally installed to the current LabVIEW folder system during installation of the Pickering driver.
Our software drivers are supported under all major Windows platforms in both 32 and 64 bit, and we also provide support for major Linux and MAC distributions. Our Universal Linux driver is a kernel-less interface that enables you to operate our products with all current mainstream Linux releases. All of our switching and simulation products are provided with an IVI Class compliant specific driver. This driver provides complete hardware interchangeability and supports the full functionality of our products.
We provide open software development interfaces allowing the freedom to create different test scenarios using a wide range of development environments such as C, C++, VB, LabVIEW, LabWindows/CVI, .NET, MATLAB, Python, TestStand™, Veristand™ and Switch Executive™. Most other environments can be supported on request. LabVIEW-RT and Veristand drivers are available for Real-Time applications. We also provide comprehensive documentation with our drivers and a number of example programs to help you develop test routines with ease.
Take a look at all of our software capabilities here >>
Are Heat Pipes the Answer to Your Thermal Issues?
Heat Pipes are one of the most efficient ways to move heat, or thermal energy, from one point to another. These two-phase systems are typically used to cool high power electronics, even in outer space. Watch the on-demand webinar to learn more about designing and modeling heat pipes into your project.
What you get:
- Answers to common questions about how to integrate heat pipes and best practices
- An in-depth heat pipe calculator tutorial
- Heat pipe modeling How-To's
- Types of heat pipes and working fluids you may not have known were available
As electrical/automation and control systems components become more compact and complex the internal enclosure heat loads are increasing. PLC’s, starters and drives are some of the major generators of heat in an enclosure. There are many challenges in the way we choose to keep the enclosures cool. ACT has developed a series of heat exchangers and air conditioners that are environmentally sealed to cool and protect the internal cabinet components from water, airborne chemical, and particulate contaminants.
Watch now for an in-depth discussion on sealed enclosure cooling technology options. We will discuss both above and below ambient cooling technologies, how they are selected and how they are installed. We will conduct live demonstrations of each ACT sealed enclosure cooling family so you can compare sizes and options. We will encourage questions and discussion as if you were with us, in person, at a trade show!
Heat pipes have been used for spacecraft thermal control for decades; however, the technology is continuously evolving. Heat Pipes are often selected due to their combination of thermal performance, low mass, and high reliability. This webinar will explore several variants including ammonia Constant Conductance Heat Pipes (CCHPs), Variable Conductance Heat Pipes (VCHPs), Loop Heat Pipes (LHPs) and Space Copper-Water Heat Pipes (SCWHPs). Each technology option provides a unique benefit for the spacecraft architecture.
This webinar will dive into details to help aerospace engineers select and apply the appropriate technology- exploring considerations such as including heat flux, transport distances, geometry and mass. Our subject experts will also be available after the webinar for specific questions on your application.