Oscilloscope Models

Whether you require high bandwidth for fast signal analysis, advanced triggering capabilities for complex signal capture, or portability for on-the-go testing, The oscilloscopes that Genetron provides are the ideal choice for engineers and technicians seeking to enhance their test and measurement capabilities.

Precision and Performance: The Oscilloscope for High-Speed Testing

Designed for high-speed testing, our oscilloscope excels in applications that demand rapid signal capture and analysis. Its unparalleled performance allows engineers to accurately observe high-frequency signals and transient events, making it indispensable for tasks such as DDR memory testing and other high-speed serial data such as PCIe and USB up to the latest revision, HDMI or DP, to name a few. Be it validating the integrity of high-speed data lines or troubleshooting complex electronic systems, this oscilloscope provides the speed and precision necessary to ensure reliable results.
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LabMaster10Zi-A_100ghz_Right-DoubleMod_5896

LabMaster 10Zi-A

The Teledyne LeCroy LabMaster 10 Zi-A is a high-performance oscilloscope platform offering unparalleled bandwidths of up to 36 GHz and advanced multi-channel capabilities. It supports up to 80 synchronized channels, making it ideal for complex serial data and DDR memory test. Equipped with the powerful ChannelSync™ architecture, a 24-core server-class CPU, and up to 192 GB of RAM, the LabMaster 10 Zi-A delivers fast processing and precise analysis. Its advanced tools for jitter decomposition, eye diagram creation, and signal integrity analysis make it a leading choice for engineers in high-speed data communications, automotive, and semiconductor industries.

Bandwidth Selection:

20 GHz, 25 GHz, 30 GHz, 36 GHz

Resolution:

8 Bits

Sampling rate:

80 GS/s

Max Memory:

512 Mpts

Channels:

4 to 80

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Key Features of Our Oscilloscopes

High Bandwidth

Our oscilloscopes are equipped with high bandwidth capabilities, allowing for the capture and analysis of fast-changing signals with exceptional accuracy. This is crucial for engineers working on high-speed digital designs and RF applications, enabling them to observe fine details in their waveforms.

Advanced Triggering Options

With sophisticated triggering options, our oscilloscopes can isolate specific events in a complex signal. This feature allows users to capture elusive signals, making it easier to troubleshoot issues in designs such as DDR memory testing or high-speed serial communication, ultimately improving development efficiency.

Intuitive User Interface

Designed with user experience in mind, our oscilloscopes feature an intuitive interface that simplifies operation, even for complex measurements. Such ease of use helps engineers quickly set up tests and interpret results, reducing time spent on training and enhancing overall productivity.

Differences Between an Oscilloscope and Other Measurement Equipment

Oscilloscopes often complement other test and measurement tools, such as spectrum analyzers and logic analyzers, in various engineering applications. Here’s how they compare to other common tools:

1. Oscilloscopes vs. Spectrum Analyzers

  • Purpose: An oscilloscope displays how a signal varies over time by measuring its amplitude, making it ideal for time-domain analysis. Spectrum analyzers, on the other hand, focus on frequency-domain information by showing how signal energy is distributed across frequencies.
  • Displayed Information: Oscilloscopes provide time-related insights like rise and fall times, jitter, and phase shifts. Spectrum analyzers reveal frequency-related metrics such as signal bandwidth, carrier frequency, and harmonic content.
  • Applications: Engineers often buy oscilloscopes to visualise signal behaviour in real-time, such as for debugging circuits. Spectrum analyzers are indispensable for applications like radio frequency communication testing and electromagnetic interference analysis.

 

2. Oscilloscopes vs. Logic Analyzers

  • Signal Types: Mixed-signal oscilloscopes (MSOs) can measure both analog and digital signals, whereas logic analyzers are specifically designed to capture and analyse digital signals.
  • Channel Count: High-speed oscilloscopes typically support two to eight channels, making them ideal for smaller-scale debugging. Logic analyzers, in contrast, can handle dozens or even hundreds of digital signals simultaneously.
  • Analysis Features: Oscilloscopes offer advanced triggering options to capture intricate signal behaviours. Logic analyzers, while less complex in triggering, excel at analysing high-channel-count digital systems.

 

3. Mixed-Domain Oscilloscopes
Some high-speed oscilloscopes combine time-domain and frequency-domain capabilities, such as incorporating fast Fourier transform (FFT) functionality. These mixed-domain oscilloscopes allow engineers to perform both DDR memory test analysis and spectrum analysis using a single device.

In short, oscilloscopes, spectrum analyzers, and logic analyzers are complementary tools, each offering unique insights depending on the analysis required. By understanding their differences, engineers can choose the right combination of equipment for their specific needs.

Key Considerations for Choosing the Right Oscilloscope

Selecting the best oscilloscope requires evaluating several critical factors to ensure it aligns with your testing needs.

 

1. Bandwidth Requirements

The bandwidth of an oscilloscope determines the range of frequencies it can accurately measure. For applications like DDR memory test, a high-speed oscilloscope with sufficient bandwidth is essential to capture fast signal transitions.

 

2. Sampling Rate

A higher sampling rate ensures accurate signal reconstruction. Opt for oscilloscopes with rates at least 2.5 times your signal frequency for optimal performance.

 

3. Resolution and Accuracy

When testing intricate designs, a 12-bit resolution oscilloscope, like the HDO6000B, offers precise signal representation, ideal for critical measurements.

 

4. Memory Depth

Long memory depth is crucial for capturing extended waveforms without losing detail. Models like the WaveMaster 8000HD provide extensive memory for demanding applications.

 

5. Usability and Features

Consider ease of use, advanced features, and the compatibility of software tools for enhanced functionality.

 

Carefully weighing these factors ensures that you buy an oscilloscope that meets your performance and budgetary requirements.

Frequently Asked Questions

How does memory depth affect oscilloscope performance?

Memory depth determines how much waveform data an oscilloscope can store during a measurement session. A deeper memory allows for longer signal capture at high resolutions, making it indispensable for detailed analyses such as DDR memory tests or high-speed signal debugging.

Why are oscilloscopes ideal for DDR memory testing?

Oscilloscopes equipped with advanced trigger functions and high sampling rates are crucial for performing DDR memory tests. They enable precise capture of data and clock signals, helping to identify and troubleshoot timing errors or signal integrity issues.

How does a high-speed oscilloscope enhance testing capabilities?

A high-speed oscilloscope allows for capturing fast signals with greater accuracy, making it ideal for applications that involve rapid changes in voltage or current. This type of oscilloscope is particularly useful in testing high-frequency circuits and ensuring signal integrity.

What is a DDR memory test, and why is it important?

A DDR memory test assesses the performance and reliability of Double Data Rate (DDR) memory modules. These tests ensure that the memory operates correctly under various conditions, which is crucial for system stability in devices such as computers and smartphones.

Can I use a high-speed oscilloscope for multiple applications?

Yes, a high-speed oscilloscope can be used for various applications, including digital signal analysis, RF testing, and troubleshooting of electronic circuits. Its versatility makes it suitable for engineers working across different fields.

What types of signals can a high-speed oscilloscope capture?

A high-speed oscilloscope can capture a wide range of signals, including analogue, digital, and mixed signals. It is particularly effective for high-frequency signals, allowing engineers to analyse performance and troubleshoot issues in real time.

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