High Purity Water System LHPW-T2020

Introduction

High Purity Water System features reverse osmosis (RO) technology with a desalination rate greater than or equal to 98%. It features a real-time multi-parameter display for continuous monitoring. The system includes indicators for consumable life, ensuring timely maintenance. It offers multiple pure water supply and recirculation modes for lab use. Our High Purity Water System is ideal for use with instruments such as , , , pH meters, and hydrogen generators. 

This water purification system is designed to meet the rigorous requirements of modern laboratory operations, ensuring high precision, reliability, and ease of use for various experimental applications.

Applications

Our High Purity Water System is well-suited for instruments such as , , , pH meters, hydrogen generators, providing pure water to extend equipment life, ensure reliable lab efficiency.

Specifications

Source	Tap Water
Conductivity (25 ºC)	< 400 us/cm
Water Temperature	5 ºC to 40 ºC
Water Pressure	0.1 to 0.4 MPa
Inlet Water Tube Diameter	3/4 inch
RO Desalination Rate	≥ 98%
RO2 Desalination Rate	≥ 99%
Microbial Removal Rate	≥ 99%
Productivity Rate (25 ºC)	300 L/h
Water Quality (25 ºC)	≥ 10 MΩ.cm
Power Supply	AC 220 V / 2.0 KW
Dimension	1040 × 800 × 1920 mm

Features

Space-Efficient Design

Anti-Scaling Technology

Advanced Micro-Purification Module

Built-in Leak Detection

External Water Quality Port

FAQs

1. What are the key features of the High Purity Water System ?

The High Purity Water System is equipped with several advanced features that ensure high performance and user convenience. It includes a high-efficiency RO membrane for optimal filtration and an anti-scaling module that eliminates the need for resin replacement. The system offers a real-time multi-parameter display for continuous monitoring and has smart indicators that alert users when consumables need replacement. It also supports various water supply and recirculation modes for flexible laboratory operation. These features make the system both efficient and low-maintenance, suitable for long-term lab use.

2. How does the High Purity Water System ensure water quality consistency?

The High Purity Water System uses a combination of RO and technologies to maintain high and consistent water purity. The reverse osmosis process removes most dissolved solids and contaminants, while the module polishes the water to meet Type II purity levels. A built-in low cell constant resistivity sensor continuously measures the water quality to ensure it remains above required standards. Additionally, the system recirculates water to prevent stagnation and microbial growth, especially during idle periods. Real-time monitoring of parameters like resistivity, pressure, and temperature provides ongoing assurance of water quality. Consumable life indicators help ensure timely maintenance, further supporting long-term performance consistency.

3. What maintenance does the High Purity Water System require?

The High Purity Water System is designed for ease of maintenance with minimal manual intervention. It features intelligent indicators that alert users when filters or other consumables approach the end of their service life. The anti-scaling module does not require resin replacement, reducing overall upkeep. Regular maintenance typically includes periodic replacement of the RO membrane and pre-treatment filters, based on usage and feed water quality. The user-friendly interface allows quick access to operational data, helping plan service schedules efficiently. With proper upkeep, the system delivers consistent water quality and long service life.

4. Is the High Purity Water System easy to operate and monitor?

Yes, the High Purity Water System is designed with user convenience in mind. It features a real-time multi-parameter digital display that continuously shows key metrics such as water quality, system pressure, flow rate, and temperature. This makes it easy for users to monitor system status and respond quickly if any parameter deviates from normal. The touch control panel is intuitive and user-friendly, allowing quick access to system settings and diagnostic information. Audible and visual alarms notify users when maintenance is required or if any operational faults occur. With built-in consumable life indicators and automated recirculation modes, the system reduces manual intervention and simplifies routine operations.

5. Can the High Purity Water System be used in pharmaceutical or regulated environments?

Yes, the High Purity Water System is suitable for use in pharmaceutical, biotech, and other regulated environments where consistent water purity is essential. It meets Type II water standards and supports compliance with pharmacopeia guidelines (such as and EP) when used appropriately. The system ensures low conductivity, minimal microbial content, and stable water chemistry—parameters that are critical for pharmaceutical quality control, formulation, and instrument calibration. With real-time monitoring and logging capabilities, it can assist in maintaining documentation and traceability for audits. For applications requiring the highest purity (Type I), the HydroMax- can serve as a reliable pre-treatment stage. Its robust design and consistent output make it a dependable component in quality-sensitive workflows.

6. What is a High Purity Water System?

A high purity water system is a compact, advanced unit designed to purify water to extremely low levels of contaminants. It removes ions, organic compounds, particles, and microorganisms to produce ultra-clean water. This level of purification is essential in laboratory, pharmaceutical, and analytical environments where accuracy is critical. The system ensures consistent water quality for reproducible results. It is typically designed for benchtop or wall-mounted installation. Simple operation and low maintenance make it ideal for daily laboratory use.

7. What purification technologies are used in a high purity water system?

A high purity water system typically combines multiple purification methods to achieve optimal water quality. These include reverse osmosis (RO) to remove dissolved salts and large molecules, deionization (DI) for ion removal, electrodeionization () for continuous ion exchange, and ultrafiltration (UF) to eliminate particulates and microorganisms. Each stage targets specific contaminants to ensure a thorough multi-step purification process. Additional technologies like UV sterilization or reduction may be included based on application needs. The result is highly purified water suitable for a wide range of laboratory procedures.

8. Is the high purity water system eco-friendly?

Yes, the high purity water system is designed with energy and resource efficiency. Automatic flushing cycles help reduce water waste and prolong membrane life. It often includes recyclable filter housings and durable components to minimize environmental impact. Reject water can be repurposed for non-critical tasks such as equipment cleaning or cooling. Energy-efficient pumps help lower electricity consumption during operation. These features support sustainable practices and help reduce long-term operating costs.

9. How does automatic flushing help the high purity water system?

Automatic flushing prevents the accumulation of contaminants on filters and membranes by periodically rinsing the internal components. This process helps maintain membrane efficiency and consistent water purity. It also minimizes the risk of microbial growth during idle periods. Flushing extends the lifespan of consumables and reduces maintenance needs. The timing and frequency of flushing can usually be adjusted according to usage. It is a key feature that ensures system reliability and stable water quality over time.

10. Can the high purity water system be used continuously?

Yes, a high purity water system is designed for continuous or high-frequency use in demanding laboratory environments. It features automated controls that maintain stable operation during prolonged use. The system regulates flow and pressure to ensure uninterrupted output. Sensors constantly monitor water quality to prevent fluctuations. Automatic flushing and scheduled maintenance cycles help prevent fouling and microbial buildup. When properly maintained, the system can deliver consistently high-quality water throughout extended operation.