Turbidity Water Quality Automatic Analyzer

The turbidity water quality automatic analyzer measures turbidity by irradiating a water sample with a light source and detecting the intensity of scattered light from suspended particles. It is used to monitor the turbidity of water bodies and track real-time changes in water quality in water treatment plants and sewage treatment facilities.
Selection
When selecting, consider the measurement range to cover actual needs, using stable light sources and scattering detection technology. Pay attention to the automatic cleaning function and calibration cycle to ensure long-term operational reliability. Determine the protection level and interface type based on the on-site installation conditions.

Terms

Standards

Instruments

Simultaneous measurement of 7 water quality paraMeters, turbidity Measurement range 0-50NTU, accuracy +/- 5%, in line with USEPA 180.1 standard, with chroma compensation and Illuminant automatic compensation function, reducing interference without frequent calibrating.

$ 2363.00

With high and low turbidity ranges (0.00-9 and 100-1000NTU) and residual chlorine total chlorine measurement (0.00-5 mg/L), using EPA-specific Illuminant, supporting chroma compensation and Automatic calibration, storing 200 sets of data, suitable for a variety of water quality testing scenarios.

$ 2505.00

Support 16 water quality paraMeters synchronous testing, equipped with IP67/IP68 waterproof rating and automatic temperature compensation system, data storage capacity up to 45000 groups, Measurement range covers 0-400mS/cm conductivity and 0-1000FNU turbidity.

$ 8494.00

The principle of scattered light is used for measurement turbidity, the measurement range is 0-200NTU, the resolution is 0.01NTU, the linearity is good and the operation is convenient, and it is suitable for a variety of water quality testing scenarios.

$ 262.00

Using large sample Cuvette with excellent Optical inspection system, with chroma compensation and Illuminant automatic compensation function, Measurement accuracy up to +/- 2% + 0.02 NTU, Support automatic range conversion and a variety of Measurement modes.

$ 2074.00

Simultaneous measurement of turbidity, residual chlorine and total chlorine with EPA custom Illuminant, USEPA 180.1 compliant, automatic range conversion, turbidity Measurement range from 0.00 to 4000 NTU, support for multi-unit display and GLP data management.

$ 3878.00

12 water quality paraMeters can be measured simultaneously, with IP67 waterproof rating and 45,000 data storage capacity, support automatic temperature compensation and fast calibrating, with backlit graphic display and intuitive Operating interface.

$ 2949.00

Using 90 ° scattered light principle, measurement range 0-1000NTU, resolution up to 0.01NTU, support 7 point correction, with high repeability and low zero drift, suitable for a variety of water quality testing scenarios.

$ 388.00

Using 90 ° scattered light principle, Measurement range 0-200NTU, resolution 0.1NTU, LCD liquid crystal display, LED Illuminant, automatic shutdown, AC and DC dual design.

$ 188.00

Using EPA custom Illuminant and chroma compensation technology, Measurement range 0.00-4000 NTU, minimum detection limit < 0.02NTU, support automatic range conversion and multiple calibrate modes to ensure the accuracy of low turbidity measurement.

$ 3527.00

Can simultaneously measure 10 water quality indicators, including pH, ORP, conductivity, etc., with IP67 waterproof and automatic temperature compensation function, data storage capacity of 45,000, adapt to harsh environment measurement needs.

$ 3373.00

With 12 water quality paraMeter detection capabilities, resolution of 0.001mg/L, Repeatability 2%, micro-processing technology and long-life Illuminant, support custom Linear dispersion calibrating and data smoothing.

$ 1058.00

Can simultaneously measure 7 water quality indicators, IP67 waterproof design, 45000 data storage capacity, support 1 second to 3 hours custom storage interval, with automatic temperature compensation and GLP management function.

$ 2615.00

16 water quality paraMeters can be measured simultaneously, equipped with IP67/IP68 waterproof rating, support automatic temperature compensation and 44,000 Data storage, Measurement accuracy of +/- 0.02pH, intuitive and convenient operation.

$ 7264.00

Using 90 ° scattered light principle, support 0~ 20NTU and 0~ 200NTU dual range measurement, resolution of 0.01 NTU, with automatic shutdown and low zero drift characteristics.

$ 233.00

Articles

Turbidity meter selection: Basis for choosing light source type and measurement accuracy.
This article mainly introduces how to select a turbidity meter based on its light source type and measurement accuracy.
How to choose a turbidimeter - starting with the measurement principle.
This article introduces how to select a turbidimeter, starting from the measurement principles. The main principles include the scattered light method, transmitted light method, and scattering-transmission ratio method, each suitable for samples with different concentrations.
Wavelength selection for the determination of sulfate content in water quality using photometric titrator
This article discusses how to select the wavelength when using a photometric titrator to determine the sulfate content in water. The core issue lies in the fact that wavelength selection directly affects the accuracy and anti-interference capability of the detection.
Conductivity meter measures the conductivity of water extract from pulp.
This article introduces the method of measuring the electrical conductivity of pulp water extracts using a conductivity meter. Electrical conductivity reflects the content of soluble ions in pulp, which is used to evaluate washing effectiveness and the impact of water quality.
Practical Application of Spectrophotometer in COD, Ammonia Nitrogen, and Total Phosphorus Determination
This article introduces the practical applications of spectrophotometers in measuring key water quality indicators—Chemical Oxygen Demand (COD), Ammonia Nitrogen, and Total Phosphorus.
How to Choose a Suitable Multi-Parameter Water Quality Analyzer Based on Detection Indicators
When selecting a multi-parameter water quality analyzer, the first step is to clarify the parameters that need to be measured, such as physical, chemical, or biological indicators, because different parameters require different detection principles, measurement ranges, and accuracy levels for the instrument.
How to choose between laboratory benchtop and portable water quality testing instruments
When selecting a water quality analyzer, the primary consideration is whether the testing task is conducted in a laboratory or on-site. Benchtop analyzers are suitable for laboratories, offering high precision, excellent stability, and the ability to handle large sample volumes. Portable analyzers are designed for fieldwork or emergencies, emphasizing rapid results, ease of operation, and strong environmental adaptability.
How can multi-parameter water quality analyzers avoid cross-contamination and improve data accuracy?
This article mainly discusses how to avoid cross-contamination in multi-parameter water quality testing to ensure data accuracy. Cross-contamination refers to the residue from a previous sample affecting the results of the next sample, which may lead to data deviation.
Which is more convenient for water hardness testing: the electrode method or the titration method?
Both electrode method and titration are used to measure water hardness. The choice depends on specific needs: opt for the electrode method for speed, and choose titration for accuracy.
Application of UV-Visible Spectrophotometer in the Detection of Heavy Metals in Water
This article introduces the application of ultraviolet-visible spectrophotometry in the detection of heavy metals in water.
Which is more accurate for measurement: the scattering method or the transmission method in turbidimeters?
The article compares two methods for measuring turbidity: the scattering method and the transmission method. The choice of method depends on the turbidity range of the sample, particle characteristics, and measurement standards. Both methods have their respective applicable scenarios, and accuracy depends on the actual application conditions.