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    AC Oscilloscope Current Probe

    AC oscilloscope current probes provide versatile AC current measurements, offering accurate current measurements over a wide frequency range. The peak pulse current is selectable between 250A and 100A, and the bandwidth is selectable between 120Hz and 120MHz.
    SKU: SISCO-OP-P6021A
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    $7,845.46
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    🚚 Free shipping
    🔙 30-day returns
    📅 Delivery: 7-12 days
    Overview

     

    SISCO's AC oscilloscope current probes simplify current measurement by allowing users to clip directly onto the current-carrying conductor without interrupting the circuit. A key safety feature is the shielded probe head, which remains ungrounded when the slides are open, preventing unintended grounding of the circuit under test.

    Ac oscilloscope current probe

    Measurement Characteristics and Signal Types

    • For 1 MΩ inputs: Suitable for standard high-impedance measurement configurations.
    • AC only: The oscilloscope current probe is specifically designed for measuring alternating current signals.
    Ac oscilloscope current probe details

    Physical Structure and Interference Suppression

    • Shielded probe head: Minimizes external noise interference for accurate readings.
    • Split core construction allows easy circuit connection: Enables quick and convenient installation without disconnecting the circuit.
     

    Applications

    AC oscilloscope current probes are essential tools for analyzing and troubleshooting a wide range of electronic systems, particularly those involving AC currents. Key applications include the testing and optimization of motor drives, where these probes facilitate precise measurement of current waveforms, enabling analysis of motor performance and efficiency. In power inverters and converters, these probes are crucial for verifying correct operation, identifying switching losses, and ensuring compliance with power quality standards. Similarly, in power supply design and testing, AC current probes provide vital insights into current draw, ripple current, and transient response. Furthermore, their high bandwidth and accuracy make them indispensable in avionics applications, where precise current measurements are critical for ensuring the reliability and safety of aircraft electrical systems.

    Oscilloscope probes for power inverters converters

    Power Inverters/Converters

    Oscilloscope probes for power supply

    Power Supplies

    Oscilloscope probes for avionics

    Avionics

    Oscilloscope probes for motor drives

    Motor Drives

    Specs

     

    Model SISCO-OP-P6021A SISCO-OP-P6022
    Peak Pulse 250A 100A
    Bandwidth 120Hz-60MHz 935Hz-120MHz
    Rise Time ≤5.8ns ≤2.9ns
    Maximum ACp-P 15A 6A
    Maximum Wire Diameter 5mm 2.8mm
    Sensitivity 10mA 1mA
    Interface BNC BNC
    Length 1.5m

     

    Packing List

    • 1 x Oscilloscope Current Probe
    • 1 x 6 in. ground lead
    • 1 x User manual

    Ac oscilloscope current probe packing list

    FAQ

    Q1: What is probe attenuation?
    A1: Probe attenuation refers to the reduction in the amplitude of the signal being measured by the oscilloscope probe. It is typically expressed as a ratio, such as 10X or 1X, indicating how much the signal is scaled down. For example, a 10X probe reduces the signal by a factor of 10, meaning the oscilloscope sees only one-tenth of the input signal’s voltage. Attenuation is useful for measuring higher voltage signals without overloading or damaging the oscilloscope, ensuring that the input signal is within the device's safe measurement range. It also improves the probe’s bandwidth and reduces the loading effect on the circuit under test.

    Q2: How to minimize noise when using oscilloscope probes?
    A2:
    To minimize noise when using oscilloscope probes, it's essential to ensure proper grounding, use short ground leads, and maintain good probe placement to reduce electromagnetic interference (EMI). Keep the probe tip as close as possible to the test point to minimize the probe's cable length, which can act as an antenna and pick up external noise. Additionally, use low-noise, shielded probes if possible and consider employing a differential probe for balanced measurements in noisy environments. Adjust the oscilloscope’s settings, such as averaging or filtering, to reduce noise in the displayed signal. It's also important to use the correct probe attenuation (e.g., 10X) to ensure the oscilloscope is properly scaled, and avoid using probes that might introduce excessive loading on the circuit, which can also contribute to noise.

    Q3: What is the difference between a passive and active oscilloscope probe?
    A3: A passive oscilloscope probe is a simple device that does not require an external power source to operate. It typically consists of a resistive voltage divider network, which attenuates the signal as it passes through the probe. Passive probes are commonly used for general-purpose measurements, offering a broad frequency range and a simple, cost-effective solution for many applications. They are typically lighter, more durable, and less expensive than active probes, making them a popular choice for basic signal testing. However, they can introduce a higher level of loading on the circuit under test, which may affect the accuracy of measurements, particularly at high frequencies.

    An active oscilloscope probe, on the other hand, uses internal electronics, such as transistors or amplifiers, to actively measure and condition the signal. These probes require a power source, often provided through the oscilloscope itself. Active probes provide higher input impedance, lower capacitance, and reduced loading on the circuit, making them more suitable for high-speed or high-frequency applications where precision is critical. They can also handle higher voltage levels with better accuracy and stability, but they are typically more expensive and require additional components to operate. Active probes are ideal for advanced measurements, such as those in digital circuits or high-frequency signals, where low loading and high performance are essential. 

    Tips: how does a oscilloscope probe work?

    An oscilloscope probe works by connecting to the circuit under test and capturing the electrical signals, which are then transmitted to the oscilloscope for analysis. The probe typically consists of a metal tip for probing the signal and a ground clip to establish a reference point. When the probe tip touches a circuit node, it measures the voltage at that point, and the signal is sent through a coaxial cable to the oscilloscope. Depending on the type of probe, the signal may be attenuated (scaled down) by a factor, such as 10X or 1X, to ensure the oscilloscope receives a signal within its measurable range. The oscilloscope then processes and displays the signal waveform, allowing users to analyze characteristics such as amplitude, frequency, and waveform shape. In active probes, internal electronics amplify or condition the signal to ensure minimal loading and higher accuracy, especially for high-speed or high-frequency measurements.

    Warranty

    Thank you for buying industrial test and measurement equipment on SISCO.com, all products sold by SISCO and the partner cover a 12 months warranty, effective from the date of receiving the products.


    What is covered?

    SISCO is responsible for providing free spare parts, and free technical support to assist the customer to repair the defective products until the problem is solved.


    What is not covered?

    • Product purchased from anyone other than a SISCO store or a SISCO authorized reseller.
    • Expendable parts.
    • Routine cleaning or normal cosmetic and mechanical wear.
    • Damage from misuse, abuse or neglect.
    • Damage from use of parts other than SISCO approved.
    • Damage from use outside the product’s usage or storage parameters.
    • Damage from use of parts not sold by SISCO.
    • Damage from modification or incorporation into other products.
    • Damage from repair or replacement of warranted parts by a service provider other than a SISCO authorized service provider.
    • Damage caused by the application environment not meeting the product usage requirements and the failure to perform preventive maintenance.
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