High Purity Water System LHPW-T2012

Introduction

High Purity Water System operates within a 0.1 to 0.5 MPa pressure range. It ensures reliable, efficient performance with user-friendly operation. The system features automatic monitoring of consumables life along with built-in alarm notifications. It includes real-time tracking of essential parameters like tank water level to maintain consistent pure water output. Our high purity water system is ideal for analytical testing, life sciences, clinical diagnostics, quality control, and as feed water for specialized equipment.

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 ideal for electrochemical analysis, cytology and histopathology slide preparation, immunohistochemistry, molecular diagnostics processes, and pesticide residue analysis, ensuring reliable and consistent water quality.

Specifications

RO Production Rate	100 L/h
Water Tank Capacity	60 L
Source	Tap Water
Conductivity	< 2000 us/cm
Hardness	< 450 ppm as CaCO3
Water Temperature	5 ℃ to 40 ℃
Water Pressure	0.1 to 0.5 MPa
Class II Resistivity (25 ℃)	≥ 10 MΩ.cm
Class II Dissolved Organic Compounds	< 0.1 ppm
Class II Water Total Organic Carbon Level	< 30 ppb
Class II Particulate Mater	< 1 pc/ml
Class II Flow Rate	3.0 to 4.0 L/min
Electrical Voltage	110 V/220 V ± 10%
Electrical Frequency	50 Hz/60 Hz
Dimension	650 × 660 × 1260 mm

Features

Touch Screen Control System

One-Click Sterilization 

Compact Design with Integrated Storage

Advanced Technology

High-efficiency RO system

FAQs

1. What is the feed water requirement for the High Purity Water System ?

The High Purity Water System is designed to operate using tap water with a conductivity of less than 2000 µS/cm and hardness below 450 ppm (as CaCO?). It functions efficiently within a pressure range of 0.1 to 0.5 MPa and a temperature range of 5 to 40°C. For locations with poor water quality or high hardness, pre-treatment such as a softening tank or additional filtration is recommended. This ensures long-term system performance and prevents membrane scaling or damage. Proper feed water quality is essential for achieving the expected purity level and extending the life of internal components. Adhering to the specified feed conditions helps maintain system reliability and efficiency.

2. What makes the High Purity Water System suitable for laboratory use?

The High Purity Water System offers a compact design, high purification capacity, and advanced purification technologies like RO and optional . It ensures a stable supply of purified water with consistent quality parameters, which is essential for reproducibility in lab work. The system includes features such as real-time monitoring, user-friendly controls, and customizable water dispensing. It is particularly useful in environments requiring consistent Type II water for general chemistry, buffer preparation, and equipment rinsing. Additionally, its integrated storage options and modular design make it adaptable to different laboratory settings. The unit's performance and reliability support long-term laboratory operations.

3. Can the High Purity Water System be used with other lab equipment?

Yes, the High Purity Water System is commonly used as feed water for other laboratory systems, such as ultrapure water generators, autoclaves, glassware washers, and clinical analyzers. Its consistent output makes it ideal for supporting downstream equipment that requires stable water quality. The system delivers water at a flow rate of 3.0 to 4.0 liters per minute, which meets the needs of various instruments. It can also be integrated into central water supply setups within multi-user labs or testing facilities. The availability of different tank sizes allows flexible installation based on water consumption patterns. This makes it a versatile solution for modern lab environments.

4. Is the High Purity Water System suitable for high-volume water needs?

Yes, the High Purity Water System is specifically designed for high-throughput environments, offering production rates of up to 100 liters per hour. It can be paired with large-capacity storage tanks to meet peak demand or supply multiple lab workstations. Its consistent flow rate of 3.0 to 4.0 L/min supports simultaneous use by multiple devices or users. The system maintains water quality even during continuous operation, making it suitable for busy labs, hospitals, and research facilities. With modular expandability and stable output, it is a dependable solution for laboratories with high daily water requirements.

5. What storage options are available with the High Purity Water System ?

The High Purity Water System supports 350-liter integrated water storage tanks, allowing flexibility based on laboratory consumption. The tank stores high purified water for immediate use, ensuring a steady supply even during high-demand periods. Each tank includes a level monitoring system that tracks water volume in real-time. This helps prevent overflow, alerts users during low water levels, and allows automatic refill management. The storage tanks are made from high-grade, contamination-resistant materials to maintain purity. This storage flexibility makes the system adaptable for both small labs and large research facilities.

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.