This is a portable 4-in-1 digital water quality tester that combines versatility, accuracy, and convenience. It is an indispensable tool for professionals and enthusiasts in fields such as agriculture, hydroponics, aquaculture, and water treatment.
Multi-Functional Testing Modes
Efficient Power and Durability
SISCO's digital water quality tester offers high precision and versatility, delivering reliable solutions for water quality testing across diverse environments. From ensuring the safety of home drinkable water to managing and maintaining water quality in aquariums, this tester enables users to quickly and accurately measure key parameters like pH, TDS, salinity, temperature, and electrical conductivity (EC). It’s also ideal for testing well water to verify source safety and balancing pH in swimming pools to support a healthy swimming environment. Suitable for both home and commercial use, this tester meets a broad range of water quality testing needs.
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Model | SISCO-PM-DDS10 | |
Basic Parameters | Electrode Sensor Type | U-shaped glass electrode |
Calibration Method | Automatic, 1408μS/cm (1 point calibration) | |
Display Mode | Rice digital screen | |
Backlight Color | Orange | |
Sound Switch | Yes | |
Power Supply | (7#) AAA battery x 1PCS | |
Weight | 650g | |
Conductivity | Measuring range | 0.0μS/cm(ppm)- 20.00mS/cm(ppt) |
Resolution | 0.1μS/cm(ppm)-0.01mS/cm(ppt) | |
Measurement Accuracy | ±1 %F.S | |
Temperature | Measuring Range | 0.0-60°C/ 32-1 40°F |
Resolution | 0.1°C | |
Compensation Range | Automatic, 0-60°C/32-140°F | |
Temperature Coefficient | 0.00-0.05, default 0.02 | |
Reference Temperature Range | 10-40°C (default 25°C) | |
Measurement Accuracy | ±1%F.S | |
Temperature Sensor Structure | External | |
TDS | Measuring Range | 0-20.00ppt |
TDS Coefficient | 0.01-1.0 adjustable (default 0.55) | |
Measurement Accuracy | ±1 %F.S | |
Salinity | Measuring Range | 0-16.00ppt |
Salinity Coefficient | NACL 0.65 | |
Measurement Accuracy | ±1%F.S |
Q1: What is a good TDS reading for drinking water?
A1: A good Total Dissolved Solids (TDS) reading for drinking water typically falls between 50 and 300 parts per million (ppm). Water with TDS levels within this range is generally considered safe and palatable, providing a balance of essential minerals without affecting taste or quality. While the World Health Organization (WHO) suggests that water with TDS levels below 300 ppm is acceptable, levels below 50 ppm may lack necessary minerals, and readings above 300 ppm can indicate excessive impurities or high mineral content, which could affect the taste and potentially pose health concerns over long-term consumption.
Q2: Â How do I use a water quality tester?
A2: Using a water quality tester is typically simple. For most handheld devices, you just need to dip the sensor or probe into the water, turn on the tester, and wait for the reading. Make sure to follow the SISCO's instructions for best results, as different testers may have specific setup requirements.
Q3: How to calibrate a 4 in 1 water quality tester?
A3: To calibrate the 4-in-1 digital water quality Tester, first, prepare the appropriate calibration solution. Turn on the device and immerse the probe in the solution. Press the calibration button and adjust the reading to match the solution’s standard value. After calibration, rinse the probe with distilled water and store it properly. Regular calibration ensures accurate and reliable measurements.
Tips: What parameters does the 4-in-1 Digital Water Quality Tester measure?
This combination of measurements provides a comprehensive understanding of water quality for various applications, including drinking water, aquariums, hydroponics, and industrial water testing.
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.
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.