Description
Specifications Table
Bandwidth – 20MHz
Channels – Dual (2 Trace)
Display Type – CRT/Analog
Grade – Laboratory/Industrial
Application – Signal analysis, waveform testing, circuit debugging
Product Overview
The 20MHz Dual Channel, 2-Trace Cathode Ray Oscilloscope (CRO) is engineered for high-precision signal analysis, offering reliable performance for laboratory and industrial applications. With a 20MHz bandwidth, it accurately captures and displays waveforms, ensuring clarity in signal measurements. The dual-channel design allows simultaneous comparison of two signals, enhancing efficiency in circuit testing and debugging. The 2-trace display provides a clear, real-time visualization of waveforms, making it easier to analyze frequency, amplitude, and phase relationships. Built with robust components, this CRO is designed for durability and consistent performance, even in demanding environments. Its intuitive controls and user-friendly interface simplify operation, reducing the learning curve for students and professionals alike. Whether used for educational purposes or advanced research, this oscilloscope delivers the accuracy and reliability required for critical measurements.
FAQs
1. What is the maximum frequency this CRO can measure?
The maximum bandwidth of this CRO is 20MHz, allowing it to accurately measure signals up to this frequency range.
2. Can this oscilloscope be used for both analog and digital signals?
This CRO is primarily designed for analog signals, but it can display digital waveforms if properly conditioned through external circuitry.
3. Is this model compatible with external probes?
Yes, it supports standard oscilloscope probes, ensuring compatibility with most lab-grade accessories.
4. What is the typical lifespan of this CRO under regular use?
With proper maintenance, this oscilloscope can last 10+ years, depending on usage frequency and environmental conditions.
5. Does this CRO require calibration before first use?
While it comes pre-calibrated, periodic recalibration is recommended for optimal accuracy, especially in precision-sensitive applications.
