In-situ Online Nutrient Analyzer for Five Nutrient Monitoring,
In-situ Nutrient Analyzer Online Nutrient Analyzer Nutrient Monitoring System Nutrient Salt Analyzer,
Frankstar Nutritive Salt Analyzer is our core independent R&D achievement. The instrument fully simulates laboratory manual chemical analysis processes. One single analyzer can achieve high-precision in-situ online monitoring of five nutritive salt indicators, including nitrite nitrogen (NO₂-N), nitrate nitrogen (NO₃-N), phosphate (PO₄-P), ammonia nitrogen (NH₄-N) and silicate (SiO₃-Si). Equipped with a supporting handheld debugging terminal, it simplifies parameter configuration and greatly improves operation convenience. This water quality analyzer can be flexibly installed on ocean buoys, survey vessels, shore monitoring stations and other marine observation platforms.
Automatic Freshwater & Seawater Adaptation
Wide adaptive range, automatically applicable to seawater and freshwater monitoring environments.
Low-Temperature Stable Performance
Maintains normal analytical performance under extremely low ambient temperature conditions.
Low Reagent Consumption & Excellent Stability
Low reagent consumption, long reagent service cycle, low signal drift, low power consumption, high measurement sensitivity, stable and reliable long-term running.
User-Friendly Handheld Terminal
Touch-controlled handheld debugging terminal with concise interactive interface, simple operation and convenient routine maintenance.
Anti-Adhesion Design for Complex Water Bodies
Built-in anti-biofouling function, capable of working continuously in high turbidity water environments.
|
Measuring Parameter |
5 nutritive salt parameters |
|
Measuring Time |
56 min for full 5 parameters test |
|
Cleaning Water Consumption |
18.4 ml per measuring period (5 parameters) |
|
Liquid Waste Output |
33 ml per measuring period (5 parameters) |
|
Data Transmission |
RS485 |
|
Power Supply |
12 V DC |
|
Debugging Device |
Touch Handheld Terminal |
|
Endurance Capacity |
4 ~ 8 weeks, depending on sampling interval. Maximum 240 measuring cycles based on reagent capacity. |
|
Parameter |
Measurement Range |
LOD |
|
NO₂-N Nitrite Nitrogen |
0 ~ 1.0 mg/L |
0.001 mg/L |
|
NO₃-N Nitrate Nitrogen |
0 ~ 5.0 mg/L |
0.001 mg/L |
|
PO₄-P Phosphate |
0 ~ 0.8 mg/L |
0.002 mg/L |
|
NH₄-N Ammonia Nitrogen |
0 ~ 4.0 mg/L |
0.003 mg/L |
|
SiO₃-Si Silicate |
0 ~ 6.0 mg/L |
0.003 mg/L |
With compact structure and low power consumption, Frankstar Nutritive Salt Analyzer can be integrated on ocean buoys, shore monitoring stations, survey vessels and laboratory platforms. It is widely applied for observation in oceans, estuaries, rivers, lakes and groundwater. The device supplies high-precision, continuous and stable nutritive salt data to support water eutrophication research, phytoplankton growth analysis and aquatic environmental change monitoring.
In-situ Online Five-Nutrient Analyzer for Continuous Water Quality Monitoring
Introduction
Nutrient concentrations in water play an important role in assessing aquatic ecosystems, environmental conditions, and water quality. Excessive levels of nutrients such as nitrogen and phosphorus compounds can contribute to eutrophication and affect aquatic ecosystems.
Traditional laboratory-based nutrient analysis usually requires water sampling, transportation, and subsequent laboratory testing. While this approach can provide accurate analytical results, it may not provide continuous information about rapidly changing water conditions.
The In-situ Online Five-Nutrient Monitoring Nutrient Salt Analyzer provides an automated solution for continuous nutrient monitoring directly at the monitoring site. By reducing the need for frequent manual sampling, the system can help researchers and environmental professionals obtain more timely water quality information.
What Is an In-situ Online Nutrient Analyzer?
An in-situ online nutrient analyzer is an automated water quality monitoring instrument designed to measure nutrient-related parameters directly in the field or through an online monitoring system.
The system can continuously collect and analyze water samples and provide monitoring data without requiring every sample to be transported to a laboratory.
Depending on the configuration, a five-nutrient analyzer can be used to monitor multiple nutrient parameters associated with nitrogen and phosphorus cycles.
This makes it suitable for applications where continuous, automated, and time-sensitive nutrient monitoring is required.
How Does the Five-Nutrient Analyzer Work?
The analyzer is designed around an automated water sampling and analysis process.
1. Water Sampling
Water is introduced into the analyzer from the monitoring location through the sampling system.
2. Automated Analysis
The system performs the required analytical process for the configured nutrient parameters.
3. Multi-Parameter Measurement
Five nutrient-related parameters can be monitored within the same analytical platform, reducing the need to deploy multiple independent instruments.
4. Data Output
Measurement results can be transferred to a monitoring platform for data recording, visualization, analysis, and remote management.
This workflow enables users to establish a more efficient online water nutrient monitoring system.
Key Features of the In-situ Online Nutrient Analyzer
1. Five-Nutrient Monitoring in One System
The analyzer integrates the measurement of five nutrient parameters into one monitoring platform.
This multi-parameter architecture helps users obtain a more comprehensive understanding of nutrient conditions while reducing the complexity associated with deploying multiple separate analyzers.
2. In-situ and Online Monitoring
Continuous monitoring provides data directly from the observation site.
Compared with periodic manual sampling, online monitoring can help identify:
Rapid changes in nutrient concentrations
Long-term water quality trends
Nutrient fluctuations
Potential pollution events
Changes in aquatic environmental conditions
This is particularly useful for monitoring locations where water conditions can change significantly over short periods.
3. Automated Continuous Operation
The system is designed for automated monitoring, reducing the workload associated with repeated manual sampling and laboratory analysis.
It can be incorporated into long-term environmental monitoring networks and remote water quality observation systems.
4. Comprehensive Nutrient Monitoring
Nutrient parameters should be evaluated together rather than relying on a single measurement.
By monitoring five nutrient-related parameters within one system, users can obtain a more comprehensive dataset for environmental assessment and research.
5. Suitable for Remote Monitoring Networks
The analyzer can be integrated into an online monitoring architecture together with:
Water sampling systems
Data acquisition units
Remote communication modules
Environmental monitoring platforms
Automatic water quality monitoring stations
This allows nutrient data to become part of a larger real-time water quality monitoring network.
Applications of Online Nutrient Monitoring
Environmental Water Quality Monitoring
Nutrient monitoring is an important component of aquatic environmental assessment.
The analyzer can be used for:
River water monitoring
Lake monitoring
Reservoir monitoring
Coastal water monitoring
Watershed environmental assessment
Continuous measurements can help researchers identify changes in nutrient conditions over time.