2530 Series, Oscilloscopes

Results:
2
Manufacturer
Series
Voltage - Input (Max)
Input Impedance
Display Type
Memory Size
Interface
Sampling Rate (Per Second)
Channels
Function
Type
Rise Time (Typ)
Voltage - Supply
Bandwidth
Probe Type
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2530
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ImageProduct DetailPriceAvailabilityECAD ModelInterfaceMemory SizeDisplay TypeVoltage - SupplySeriesTypeBandwidthChannelsFunctionProbe TypeSampling Rate (Per Second)Input ImpedanceRise Time (Typ)Voltage - Input (Max)
2530
OSCOPE 25MHZ DIGITAL STORAGE
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Quantity
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PCB Symbol, Footprint & 3D Model
USB
-
LCD - Monochrome
100 ~ 240VAC
2530
Bench, Digital
25 MHz
2
Record, Playback, Save, Trend
Passive 10:1 (2)
250M
1M - 13pF
14 ns
CAT II 300V
2530B
25 MHZ,500 MSA/S DGTL OSC SCOPE
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Quantity
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PCB Symbol, Footprint & 3D Model
RS232, USB
32kpts
LCD - Color
100 ~ 240VAC
2530
Bench, Digital
25 MHz
2
Record, Playback, Save, Trend
Passive 10:1 (2)
500M
1M - 16pF
14 ns
CAT I 400V

About  Oscilloscopes

Oscilloscopes are indispensable measurement tools in the field of electronics, providing a visual representation of electronic signals. They are widely used by technicians, engineers, and researchers to observe, analyze, and measure high-speed phenomena in electrical circuits and systems. One of the primary advantages of oscilloscopes is their ability to capture and display waveforms in real-time. This allows users to visually examine the shape, amplitude, and timing characteristics of electrical signals. Unlike other measurement instruments, such as multimeters, oscilloscopes provide a dynamic view of signal behavior, making them particularly useful for analyzing time-varying signals. Oscilloscopes come in a variety of models, ranging from basic to advanced, with different performance capabilities. Advanced oscilloscopes can handle signals with high-frequency content approaching the gigahertz (GHz) range. These high-performance oscilloscopes are essential for applications involving high-speed digital circuits, telecommunications, and radio frequency (RF) systems. However, it's important to note that oscilloscopes typically prioritize speed over absolute accuracy and measurement resolution. This means that while they excel at capturing fast-changing signals, they may sacrifice some precision compared to other instruments like multimeters. For low-frequency and DC phenomena, where multimeters are well-suited, even modest multimeters may provide more accurate measurements than most oscilloscopes. Nevertheless, oscilloscopes play a crucial role in the electronics industry by providing a visual representation of signals and allowing users to perform measurements, such as voltage, current, frequency, and time intervals. They enable engineers and technicians to troubleshoot circuit problems, validate signal integrity, analyze waveform distortions, and verify compliance with specifications. In summary, oscilloscopes are essential tools for observing and measuring high-speed electronic phenomena. While they may not offer the same level of accuracy as multimeters for low-frequency measurements, their real-time visualization capabilities make them invaluable for analyzing dynamic electrical signals and ensuring the proper functioning of electronic devices and systems.