Product Summary
This voltage sensor is compatible with any analog channel on a ScienceWorkshop Interface, the 850 Universal Interface, or the 550 Universal Interface. The voltage range and frequency response depend on the interface. When the voltage sensor is plugged into either the 550 or 850 Universal Interface, the sensor is automatically recognized.
Product Specifications
Voltage Range with 850 Interface | ±20 V AC/DC (850 interface) |
Voltage Range with other interface | ±10 V AC/DC (other than 850) |
Pin Configuration | 8-pin DIN plug. Probe ends are standard banana plugs.Two alligator clip adapters included. |
Data Collection Software
This product requires PASCO software for data collection and analysis. We recommend the following option(s). For more information on which is right for your classroom, see our Software Comparison: SPARKvue vs. Capstone »
Interface Required
This product requires a PASCO Interface to connect to your computer or device. We recommend the following option(s). For a breakdown of features, capabilities, and additional options, see our Interface Comparison Guide »
ScienceWorkshop Sensors and PASPORT Interfaces
Most of PASCO's ScienceWorkshop sensors may be used with our PASPORT interfaces by using the correct adapter. Learn more about our analog and digital PASPORT adaptors in the following guide:
Product Guides & Articles
Voltage and Current Sensors
Educational voltage and current sensors don’t have to look serious to have seriously powerful capabilities. We provide user-friendly voltage and current sensors that generate live data to improve students’ contextual understanding of electrical concepts. This page provides a comparison chart of our offerings to help you make an informed purchase.
Experiment Library
Perform the following experiments and more with the Voltage Sensor (unshrouded).
Visit PASCO's Experiment Library to view more activities.
Electric Field Mapping
This qualitative activity introduces the concepts of equipotential surfaces and electric fields. A number of rules about the electric field are verified. At the end of the activity, the student should be able to sketch the electric...
RC Circuit
The manner by which the voltage on a capacitor decreases is studied. The half-life for the decay is measured directly and also calculated using the capacitive time constant.
Ohm's Law
The purpose of this experiment is to verify Ohm’s Law for commercially manufactured resistors and to examine the limits of validity for Ohm’s Law. The behavior of resistors, a diode, and a light bulb are examined.
Kirchhoff's Circuit Laws
Verify the laws for a resistive circuit using a DC input and for a time varying RC circuit. The DC portion and the RC portion of the lab are each stand-alone labs.
LRC Resonance
The current through a series LRC circuit is examined as a function of applied frequency and the effects of changing the values of the resistance, inductance, and capacitance are observed. The phase difference between the applied...
Properties of Diodes
Investigate the characteristic curves (I vs. V) of various types of diodes and to determine their “turn-on” voltages.
General Properties of Diodes
The purpose of this experiment is to investigate the characteristic curves (I vs. V) of various types of diodes and to determine their “turn-on” voltages.
LRC Series Circuit
The phase differences between the output voltage, the voltage across the inductor, the voltage across the capacitor, and the voltage across the resistor will be examined at resonant frequency, and the half-power frequencies above...
Build a Rectifier
Build a half wave rectifier and to examine its properties. An RC filter circuit is then added to produce a DC power supply and the dependence on the RC values is examined.
Kirchhoff’s Circuit Laws
Kirchhoff’s Junction Rule and Loop Rule form the basis of all circuit analysis. Here we verify the laws for a resistive circuit.
Support Documents
Manuals | ||
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Voltage Probe Manual | English - 319.81 KB |