Product Description
Yosemitech Y560-A Self-cleaning Ammonium Sensor measures the concentration of dissolved ammonium as nitrogen (NH4-N) in water. The ISE probe uses pH, Ammonium Ion electrodes, and an optional potassium ion electrode to determine the NH4+-N concentration. It is designed for use in all kinds of natural water, such as lakes, streams, rivers, as well as wastewater plants. The online Ammonium sensor measures ammonium electron concentration without using any chemicals. With an automatic wiper to clean up the electrode sensing surface and easy electrode replacement, Y560-A provides a quick, simple, and economical solution for ammonium concentration measurement.
Monitoring ammonium and ammonia levels is crucial in various environmental and wastewater management applications. In wastewater treatment plants, these measurements ensure that the amount of ammonium/ammonia discharged into rivers is within safe limits, protecting aquatic ecosystems. Furthermore, such monitoring is essential for maintaining the quality of potable water.
Applications of Measuring Ammonia:
Environmental Water: Ensures safe levels in lakes, streams, and rivers, supporting wildlife and ecosystem health.
Potable Water: Guarantees that drinking water remains within safe ammonia concentrations.
Wastewater Management: Helps in regulating discharge levels and improving treatment processes.
Product Features
Digital Sensor, RS-485 Output, MODBUS protocol compatible;
No reagent, no pollutants, more economic and environmentally friendly;
Automatic compensation for NH4+, pH and temperature in water;
With a self-cleaning wiper, prevent biofouling to guarantee accurate measurement;
Cost-effective trending information, simple, accurate calibration
Product Size
Product Parameters
Name | Ammonium ISE Sensor |
Model | Y560-A |
NH4_N Range | 0-100mg/L (0-1000mg/Loptional) |
NH4_N Accuracy | ±10% or ±0.5mg/L |
NH4_N Resolution | 0.01 mg/L |
pH Range | 4-10 |
pH Accuracy | ±0.1pH |
pH Resolution | 0.01 |
Size | Φ64mm*271mm(with protective cover) |
Housing IP Rating | IP68 |
Deepest Depth | 10m underwater |
Temperature Range | 0 ~ 50℃ |
Sensor Interface | Supports RS-485, MODBUS protocol |
Construction | NPT3/4 thread, submersible mounting |
Power | DC 9~24V, current<100mA(when not cleaning) |
Cable Length | 10m standard, Custom length available |
Calibration | one-point or two-points calibration |
Sensor housing material | POM |
FAQs
1. Difference Between Ammonia and Ammonium
https://e.yosemitech.com/industry/Ammonia-VS-Ammonium.html
2. How to Calibrate Y560-A ISE Ammonium Sensor?
3. Why is Important to Test Ammonia in Water?
Testing for ammonia in water is crucial because elevated levels often signal pollution. Ammonia frequently enters water systems through agricultural runoff due to its use in fertilizers and as a byproduct from animal farming. This chemical is also a component in various industrial processes, such as the production of plastics, paper, and rubber.
Beyond industrial and agricultural origins, ammonia emerges in aquatic environments as a natural waste product. Fish, for instance, directly release ammonia into the water. When ammonia levels exceed 0.1 mg/L, it can indicate harmful conditions for aquatic life, potentially leading to toxicity and disrupting the ecosystem.
Monitoring ammonia ensures that water remains safe for both human use and aquatic habitats, preventing damage from contamination and maintaining environmental balance.
4. How Can Ammonia Levels in Water Affect Aquatic Life and Ecosystems?
Ammonia, even in minute concentrations, poses a serious threat to aquatic life. Its toxicity is influenced by factors such as the water's pH and temperature. Higher pH levels and warmer waters amplify the harmful effects of ammonia on fish and other aquatic organisms.
Sources of Ammonia in Water:
1. Agricultural Runoff: Fertilizers used in farming can lead to increased ammonia concentrations in nearby water bodies.
2. Sewage Effluent: Untreated or inadequately treated sewage can introduce ammonia into the environment.
3. Landfill Leachate: As rainwater percolates through landfills, it can pick up ammonia, entering streams and rivers.
4. Industrial Effluent: Many industrial processes discharge ammonia into water systems as a byproduct.
Impact on Aquatic Ecosystems:
1. Direct Toxicity: Ammonia directly harms fish and other aquatic life, disrupting cellular processes and leading to illness or death.
2. Promoting Eutrophication: High ammonia levels contribute to eutrophication, which accelerates the growth of aquatic plants and algae. This overgrowth can choke water bodies and severely disrupt ecosystems.
3. Oxygen Depletion: As algal blooms die and decompose, they consume oxygen, reducing levels available for other aquatic organisms. This can lead to "dead zones" where life struggles to survive.
Monitoring ammonia levels in water is crucial to protecting aquatic ecosystems. Understanding and addressing the sources of ammonia can help maintain the delicate balance necessary for these environments to thrive.
Yosemitech Technologies Co., Ltd
Email: sales@yosemitech.com
Add: Bldg,25,CECEP Industrial Park, No. 18 Dongchang Rd. Suzhou Industrial Park, Jiangsu Province,China 215126, China