High Accuracy 0-100NTU Lower Tubidity Sensor For Industry Treated Water

High Accuracy 0-100NTU Lower Tubidity Sensor For Industry Treated Water

The Daruifuno OLTU601 redefines liquid turbidity measurement with its advanced laser flow-through sensor and integrated display. This innovative device provides instant, on-screen visualization of turbidity or suspended particle concentration, eliminating the need for external equipment. Users can directly view precise measurement values, units, and other critical data on the built-in screen.

How it Works: Precision Laser Scattering Technology
At its core, the OLTU601 utilizes the principle of laser light scattering. A concentrated laser beam penetrates the liquid sample. As suspended particles within the liquid interact with the laser, they cause the light to scatter. An integrated light receiver then accurately detects the intensity of this scattered light. The direct correlation between scattered light intensity and the concentration of suspended particles ensures highly accurate and reliable measurements.

Superior Sensitivity and Enhanced User Experience
Setting a new standard in turbidity sensing, the Daruifuno OLTU601 offers unparalleled sensitivity and accuracy compared to traditional sensors. Its reliance on the unique characteristics of laser beams allows for exceptionally precise measurements, even at very low turbidity levels. The integrated display significantly improves user convenience, offering an intuitive interface for real-time data presentation, which streamlines both operation and data collection workflows.

Technical Parameters

Daruifuno OLTU601: Advanced Laser Flow Turbidity Sensor

The Daruifuno OLTU601 flow turbidity sensor leverages a sophisticated laser light scattering principle for highly precise liquid turbidity measurements. It works by directing a 660nm laser vertically into the water sample. When this laser light encounters suspended particles, it scatters. An integrated silicon photocell receiver, submerged in the water, accurately detects this scattered light at a 90° angle relative to the original laser beam, allowing for precise turbidity calculations.

Key Advantages and Features:

• Compact Form Factor: The OLTU601 features a miniaturized design, making it perfect for installations where space is a critical constraint.

• High-Resolution Laser Performance: Employing 660nm laser technology, the sensor provides outstanding resolution and a rapid response time for monitoring dynamic changes in turbidity.

• Reduced Maintenance Needs: Optional features like a viewing window and an automatic emptying system significantly lower maintenance requirements, boosting operational efficiency.

• Minimized Sample Waste: With its low injection flow requirements, the sensor helps minimize the volume of waste generated during the measurement process.

• Smart Calibration & Portability: The OLTU601 stores calibration data internally, supporting offline calibration for genuine "plug and play" functionality directly on-site.

• Integrated Flow Cell Design: This turbidity probe is engineered as a flow cell type, ensuring consistent and reliable interaction with the sample.

• On-Board Display & Controls (OLTU601): Specifically for the OLTU601 model, an integrated display shows measurement parameters, complemented by three user-friendly buttons for easy calibration.

• Digital Connectivity (OLTU601/OLTU600): Both the OLTU601 and OLTU600 models come with RS485 Modbus RTU communication, enabling effortless integration into diverse control systems.

Advantage

• Benefits of Digital Low Turbidity Sensors
  Digital low turbidity sensors offer significant advantages across various applications, delivering enhanced performance and operational efficiency.

• Superior Precision and Stability
  These sensors employ digital technology for both measurement and data processing, ensuring exceptional accuracy and consistent stability. This directly translates to highly reliable turbidity readings, essential for well-informed decisions.

• Real-time Monitoring and Comprehensive Data
  Digital sensors excel in real-time monitoring, providing instant updates on turbidity levels. They also offer robust data logging capabilities, facilitating thorough historical analysis. This continuous data flow is crucial for identifying trends, detecting sudden shifts, and implementing proactive control measures.

• Adaptable and Customizable
  A key benefit of digital sensors is their flexibility and programmability. Users can easily customize parameters such as measurement ranges, sensitivity, and sampling frequencies to perfectly align with their specific application needs. This adaptability ensures optimal performance across diverse operating conditions.

• Reliable in Harsh Conditions
  Digital sensors are engineered with strong interference resistance. This allows them to maintain stable performance even in complex or electrically noisy environments, minimizing the impact of external disturbances on measurement accuracy and ensuring dependable operation.

• Seamless Integration and User-Friendly Design
  Designed for modern systems, digital sensors typically feature standardized interfaces and communication protocols. This simplifies their integration with existing equipment and control systems. Additionally, their user-friendly interfaces streamline both installation and daily operation, making them accessible to a wider range of users.

• Optimized Resource and Cost Efficiency
  Investing in digital low turbidity sensors leads to long-term savings. They generally have lower maintenance costs and extended lifespans. The capability for remote monitoring and fault diagnosis also significantly reduces downtime, contributing to substantial overall cost and resource savings.

  In summary, digital low turbidity sensors provide an impressive combination of precision, stability, real-time insights, adaptability, and cost-effectiveness. These attributes make them an ideal solution for a wide array of applications requiring accurate turbidity measurement and continuous monitoring.

Low turbidity sensors are often used in environments where high sensitivity and accuracy are required. Some of these applications include:

• Drinking Water and Wastewater Treatment: In drinking water and wastewater treatment plants, low turbidity sensors are used to monitor the concentration of suspended particles and contaminants in water to ensure that water quality meets relevant standards.
• Pharmaceutical industry: In the pharmaceutical process, low turbidity sensors are used to monitor tiny particles and impurities in pharmaceutical solutions or injections to ensure product quality and purity.
• Winemaking industry: In the winemaking process, low turbidity sensors are used to monitor the concentration of microorganisms and suspended particles in the fermentation broth to ensure the quality and stability of wine products.
• Food Processing: During food processing, low turbidity sensors are used to monitor the concentration of suspended particles and impurities in food to ensure food safety and quality.
• Semiconductor Manufacturing: In the semiconductor manufacturing process, low turbidity sensors are used to monitor tiny particles and impurities in ultrapure water and chemical solutions to ensure the accuracy and stability of the chip manufacturing process.
• Biomedical Research: In biomedical research, low turbidity sensors are used to monitor the concentration and purity of cells, proteins, and other biomolecules in biological samples to support scientific experiments and diagnostic applications.