Low Temperature Circulating Chiller LLTC-T413

Introduction

Low Temperature Circulating Chiller a high-capacity circulation pump with 100L/min 2 bar for efficient cooling.Its robust cooling efficiency ensures stable performance in demanding applications. The system includes high-pressure protection sensors for safety. It optimizes energy consumption while maintaining performance. Our chiller ensures temperature stability during cooling and heating in experiments testing new materials and coatings.

This laboratory chillers 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 Low Temperature Circulating Chiller plays a critical role in cooling and heating during experiments, ensuring temperature stability during testing of new materials, coatings, and composites for improved product properties.

Specifications

Temperature Range	5°C to 90°C
Temperature Control	controller, control the water tank outlet temperature
Temperature Control Accuracy	±0.3°C
Circulation Pump Max	100L/min 2 bar
Refrigerant	A/R407C
Heating Power	15 kW
Cooling Capacity at 10°C	20 kW
Power	AC380V 50HZ / AC460V 50HZ

Features

Efficient Energy Consumption

Rapid Temperature Adjustment

Reliable Process Scalability

Easy System Integration

Improved Operational Reliability

FAQs

1. What applications is the Low Temperature Circulating Chiller suitable for?

It is ideal for applications in material testing, product development, chemical reactions, and pilot-scale production, providing precise thermal control for both heating and cooling requirements. The chiller ensures stable temperature conditions, which is critical for maintaining consistency in results across various processes. Its versatility makes it suitable for industries such as pharmaceuticals, chemicals, biotechnology, and manufacturing.

2. How does the Low Temperature Circulating Chiller ensure energy efficiency?

The chiller is designed with energy-efficient components, including a high-capacity circulation pump and optimized heat exchangers, ensuring that cooling and heating are performed with minimal energy consumption. Additionally, its advanced -based control system automatically adjusts the operation based on load conditions, optimizing energy usage. The use of high-quality insulation and low-power consumption features further enhances its energy efficiency, reducing operational costs while maintaining reliable performance.

3. Is the Low Temperature Circulating Chiller compatible with existing systems?

Yes, the chiller is compatible with a variety of automated systems and process controls, integrating seamlessly into existing setups for enhanced process efficiency and thermal management. It features standard communication interfaces and protocols, allowing easy integration with lab equipment, manufacturing systems, and monitoring software. The chiller’s flexibility makes it ideal for use in a wide range of industries, from research labs to industrial production environments.

4. What are the primary benefits of the Low Temperature Circulating Chiller in research and development?

It ensures stable, controlled temperatures during experimental trials, making it invaluable for R&D where consistent thermal conditions are necessary for accurate testing and development. The chiller provides precise temperature control, minimizing the risk of fluctuations that could interfere with sensitive experiments. Its reliability supports a wide range of applications, from material testing to chemical reactions. By maintaining optimal conditions, it helps researchers achieve reproducible results, accelerating innovation and improving the quality of product development.

5. What safety features are incorporated into the Low Temperature Circulating Chiller?

The chiller comes with built-in safety features, such as pressure sensors and automatic shutoffs, to prevent system overloads and ensure safe operation under varying temperature and pressure conditions. These safety mechanisms help prevent overheating, excessive pressure, and other risks that could damage the chiller or affect its performance. The system also includes temperature sensors to monitor both inlet and outlet temperatures in real-time, ensuring that the chiller operates within safe limits.