Recirculating Chiller LRC-T2013

Introduction

Recirculating Chiller maintains a 15 liter expansion tank and 8 liter fluid volume ensuring efficient cooling. Incorporated with an integrated fluid reservoir, it provides a continuous supply without frequent refilling. Equipped with a sealed system that prevents coolant evaporation, minimizing maintenance and extending system life. Features a scalable system that can be expanded or upgraded based on growing demands. Offers high-performance regulation for laboratory experiments, industrial machinery, chemical reactors, laser equipment, medical applications.

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 Recirculating Chiller delivers high-performance cooling for laboratory experiments, industrial machinery, chemical reactors, laser equipment, medical applications, and scientific research, guaranteeing precise temperature control for critical operations. 

Specifications

Temperature Range	-25°C to 90°C
Temperature Control	±0.05°C
Expansion Tank Volume	15L
Fluid Volume	8L Internal Circulation
Flow Control	15 to 45L/min
Cooling Water flow	3.6m³/H at 20°C
Refrigerant	R448A
Cooling Capacity	6Kw at -15°C
Dimension	980mm x 430mm x 1400mm

Features

Stable Cooling Performance

Long Service Life

Safe Operational Design

Innovative Cooling Technology

Low Energy Usage

FAQs

1. Can recirculating chillers be used for sensitive processes like biotechnology or pharmaceutical research?

Yes, It recirculating chillers are ideal for sensitive applications, including biotechnology and pharmaceutical research. Their precise temperature control ensures that temperature-sensitive processes, such as enzyme reactions or drug stability tests, are managed effectively, adhering to the required standards in the industry.

2. Are recirculating chillers suitable for continuous use in industrial settings?

Yes, our recirculating chillers are designed for 24/7 operation, making them perfect for industries that require constant cooling, such as manufacturing or chemical processing. Their robust construction ensures reliable, uninterrupted cooling while minimizing the need for frequent downtime or maintenance.

3. How does the energy efficiency of recirculating chillers contribute to cost savings?

recirculating chillers are built with high-efficiency components such as energy-saving compressors and variable-speed motors. These elements automatically adjust the chiller’s power consumption according to the system’s needs, helping to reduce energy use and cut down on electricity bills, all while maintaining optimal cooling performance.

4. What additional monitoring options are available for recirculating chillers?

Several advanced monitoring options are available for recirculating chillers, including remote sensors that track key parameters like temperature, pressure, and coolant levels. These systems can send real-time notifications and alerts, allowing users to monitor conditions remotely and make adjustments as needed. Enhanced monitoring features, such as data logging and flow sensors, can further optimize operational efficiency, reduce downtime, and ensure continuous, reliable performance.

5. How do recirculating chillers reduce their environmental impact?

recirculating chillers are engineered to be energy-efficient, using eco-friendly refrigerants that reduce global warming potential (). In addition to reduced energy consumption, It adheres to sustainable practices in manufacturing and disposal, ensuring a lower carbon footprint for each unit produced.

6. How long will it take for a recirculating chiller to stabilize the temperature of a sample?

The time required for stabilization depends on factors such as the chiller’s cooling capacity, the ambient temperature, and the specifics of the application. However, It chillers are designed for quick temperature adjustment, with many models able to bring temperatures to the desired set point in as little as 3–10 minutes. For optimal performance, conditions like pre-cooling or fine-tuning the system can further speed up stabilization, ensuring fast and efficient operation.