This waterproof sensor connects via Bluetooth® to measure both conductivity (ionic content in solution) and total dissolved solids.
- 1x Coin cell battery
See the Buying Guide for this item's required, recommended, and additional accessories.
Product Summary
The Wireless Conductivity Sensor has an improved range and decreased error when measuring the electrical conductivity of aqueous solutions. It is ideal for investigating the ionic properties of solutions, including calculations for total dissolved solids (TDS) often used for water quality inquiry. Temperature compensation handles calibrations across a range of temperatures. New design supports a doubling of previous conductivity determination, now up to 40,000 µS/cm, this sensor can be utilized for chemical, biological, and environmental studies easily into brackish waters.
Teacher tip: To measure fully marine samples above sensor range, dilute your salt water solution in half then multiply sample conductivity x 2.
Features
- Measure conductivity and total dissolved solids
- Automatic temperature compensation
- Battery life >1 year
- Remote logging with built-in memory
- Dust-proof, sand-proof, and water-resistant (1 meter for 30 minutes)
Applications
- Water quality investigations
- Performing condumetric titrations
- Investigating solution properties
- Diffusion of ions through membranes
- Differences between ionic and molecular compounds
- Comparing strong and weak acids
How It Works
Conductance is the reciprocal of resistance. In this case, the Wireless Conductivity Sensor measures the current flowing through the circuit when submerged in solution and voltage is applied. The electrode cell is constructed from insulating material with two pins made of 300 series stainless steel placed a fixed distance apart to serve as the sensing element. The Wireless Conductivity Sensor includes built-in temperature compensation to extend the useful range an minimize the need for calibration.
What's Included
- 1x Coin cell battery
Product Specifications
Conductivity |
|
Total Dissolved Solids |
|
Response Time | 95% of final reading in 5 seconds or less |
Probe Environmental Tolerance (Min-Max) | 0–80°C |
Temperature Compensation | 0–35°C |
Temperature Accuracy | ±0.5°C |
Waterproof | IPX7 rated (1 meter for 30 min) |
Connectivity | Bluetooth 5.2 |
Logging | Yes |
Battery Type | Coin Cell |
Battery & Logging
Stored Data Points Memory (Logging) 1 | >35,000 |
Battery - Connected (Data Collection Mode) 2 | >195 hr (2-3yrs of normal classroom use) |
Battery - Logging (Data Logging Mode) 3 | >3 days |
Battery Type | Coin Cell |
1 Minimum # of data points with all measurements enabled, actual results depend on enabled measurements.
2 Continuous use in a connected state until battery failure, actual results will depend on sample rate, active measurements, and battery condition.
3 Logging until battery failure, actual results will depend on sample rate, active measurements, and battery condition.
* Normal classroom use is the sensor in active use for 20min/lab for 120 lab periods/yr.
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 »
Connectivity Options
This product can connect directly to your computer or device with the following technologies. No Interface required. See the following guide for details regarding device compatibility: Wireless Bluetooth Product Compatibility »
Dedicated Datalogging with SPARK LXi2
Consider an all-in-one, touchscreen data collection, graphing, and analysis tool for students. Designed for use with wired and wireless sensors, the SPARK LXi2 Datalogger simultaneously accommodates up to five wireless sensors and includes two ports for blue PASPORT sensors. It features an interactive, icon-based user interface within a shock-absorbing case and arrives packaged with SPARKvue, MatchGraph!, and Spectrometry software for interactive data collection and analysis. It can additionally connect via Bluetooth to the following interfaces: AirLink, SPARKlink Air, and 550 Universal Interface.
Buying Guide
Recommended Accessories | P/N | Price |
---|---|---|
Electrode Support | PS-3505 | -- |
Replacement Parts | P/N | Price |
---|---|---|
Coin Cell Battery Pack | PS-3504 | -- |
Also Available | P/N | Price |
---|---|---|
USB Bluetooth Adapter | PS-3500 | -- |
Product Guides & Articles
AP Biology Lab Manual Overview
PASCO’s award-winning teacher guide, Advanced Biology Through Inquiry Teacher Lab Manual, includes eighteen guided inquiry labs that cover AP Biology concepts such as osmosis and diffusion, evolution, energetics, and system interactions.
AP Chemistry Lab Manual Overview
Authored by chemistry educators, the Advanced Chemistry Through Inquiry Teacher Lab Manual includes sixteen guided inquiry labs that cover AP Chemistry course concepts such as Moles and Molar Mass, Stoichiometry, and Reaction Rates.
Titration
A titration is a chemical analysis in which a researcher determines the concentration of a chemical solution (analyte or titrand) by adding a measured volume of standard solution (titrant) until the produced reaction reaches the equivalence point.
Effective Strategies for Teaching Chemical Bonding
Imagine standing in front of your high school chemistry class, your students having entered with many possible things on their minds, some excited for the next lesson, others wondering who their next upcoming game will be against or what is the newest online trend. You’re ready to delve into exciting new territory, but you quickly discover that topics like Chemical Bonding could either spark curiosity or induce vapid yawns.
Experiment Library
Perform the following experiments and more with the Wireless Conductivity Sensor.
Visit PASCO's Experiment Library to view more activities.
Properties of Ionic and Covalent Compounds
In this lab, students use a conductivity sensor to determine if an unknown substance is an ionic, polar covalent, or non-polar covalent compound.
Water Treatment
In this lab, students will model several water treatment methods. Then they will use pH, conductivity, and turbidity sensors to assess the effectiveness of each filter.
Water – The Universal Solvent
In this lab, students will use a conductivity sensor to classify substances based on their ability to dissolve in water and measure the changes in the conductivity of water as substances dissolve in it.
Investigating Physical and Chemical Changes of Matter
Students use a variety of sensors and particle modeling to characterize physical and chemical changes of matter.
Water Purification
Students use a pH sensor and a conductivity sensor to evaluate the effectiveness of various water treatment processes.
Water and pH
In this lab, students will investigate the conductivity and pH of local water sources before determining the buffering capacity of each sample using a weak acid.
Soil Salinity
In this lab, students will use a conductivity sensor to measure the level of conductivity of various water and soil samples.
Water Treatment
In this lab, students use pH, conductivity, and turbidity sensors to demonstrate how water treatment processes such as filtration, flocculation, and sedimentation improve water quality.
A Chemistry Mystery: Name That Unknown!
Students use several methods to characterize compounds according to the nature of intramolecular bonding.
Cell Size
Students use a conductivity sensor to measure the effect of cell size on solute diffusion rate using agarose-salt cubes.
Stoichiometry in Solutions
Students use conductometric titration and particle modeling to study the stoichiometry of acid-base titration.
Properties of Ionic and Covalent Compounds
Students will use hardness, melting point, solubility, and conductivity to determine the bond type present in unknown substances.
Support Documents
Manuals | ||
---|---|---|
Wireless Conductivity Sensor Manual (PS-3210) | English - 378.08 KB | |
Wireless Conductivity Sensor Manual (PS-3210A) | English - 741.96 KB | |
Safety Sheets | ||
Lithium Battery Safety Data Sheet | English - 129.01 KB | |
Knowledge Base | ||
How do I troubleshoot connecting a wireless sensor? | Aug 22nd, 2022 | |
Windows asks for a PIN number when connecting wireless sensor or device | Sep 18th, 2023 | |
Android asks for a PIN number to pair a wireless device to system | Aug 29th, 2023 | |
How to install the Data Streamer app extension within Microsoft Excel | Apr 5th, 2023 | |
Proper preparation of coin cells for recycling | Dec 12th, 2022 |