Low Temperature Circulating Chiller LLTC-T2010

Introduction

Low Temperature Circulating Chiller features a high-capacity circulation pump of 2.4m³/h 2 bar for optimal cooling. It features a plate heat exchanger that enhances heat transfer efficiency. The operation panel shows both set and actual temperatures clearly. Its compact design supports easy installation and space optimization. Our chiller enables efficient control in sequencing, chromatography cooling, cryo-milling, high-energy physics setups, and process reactors.

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 enables efficient control in sequencing, chromatography cooling, cryo-milling, high-energy physics setups, process reactors, fermentation tanks, medical diagnostic devices, and production processes.

Specifications

Temperature Range	-60°C to -30°C
Temperature Control	±0.5°C
Circulation Pump Max	2.4m³/h 2 bar
Refrigerant	R448A/R23
Cooling Capacity at -40°C	6.2 kW
Cooling Capacity at -55°C	4.9 kW
Power	400V 50HZ / 460V 60HZ
Dimensions	550 × 1100 × 1700 mm
Net Weight	360 kg
Gross Weight	420 kg

Features

Temperature Control

High-Efficiency Compressor

Plate Heat Exchanger

7-inch Touch Screen

Data Export Function

FAQs

1. What type of refrigerant is used in the Low Temperature Circulating Chiller?

The chiller uses R448A/R23 refrigerants, which offer an environmentally friendly and efficient cooling solution for various temperature-sensitive processes. These refrigerants help reduce global warming potential while providing reliable cooling performance. R448A is a non-ozone-depleting alternative to older refrigerants. The chiller’s use of R23 allows it to reach ultra-low temperatures, making it ideal for cryogenic applications.

2. What are the main benefits of using a plate heat exchanger in this chiller?

The plate heat exchanger in the Low Temperature Circulating Chiller enhances heat transfer efficiency, ensuring fast cooling and maintaining stable temperatures during operation. This design reduces the overall size of the system while increasing heat exchange surface area. It also helps improve energy efficiency by allowing better thermal management. The compact design allows for easy integration in space-constrained environments, while optimizing performance for sensitive processes.

3. Can the Low Temperature Circulating Chiller be used in high-performance research labs?

Absolutely. The Low Temperature Circulating Chiller is designed for high-precision applications, making it perfect for research labs, biotech, medical diagnostics, and high-energy physics setups where temperature stability is critical. Its advanced control system ensures consistent performance even under demanding conditions. The compact design also supports flexible installation in lab environments. Additionally, safety features and real-time monitoring make it reliable for sensitive research operations.

4. Can the chiller handle fluctuating load conditions?

Yes, the Low Temperature Circulating Chiller is engineered to perform consistently under fluctuating load conditions, maintaining stable temperature regulation even when workloads vary. Its intelligent control system adjusts dynamically to load changes, ensuring optimal efficiency. This adaptability makes it suitable for processes with varying thermal demands. The reliable performance helps protect sensitive equipment and materials from thermal shock or instability.

5. How does the Low Temperature Circulating Chiller contribute to process efficiency?

The Low Temperature Circulating Chiller ensures that temperature-sensitive processes like chemical reactions, chromatography, and medical tests are maintained at optimal temperatures, reducing risks and improving overall process efficiency. It minimizes downtime by providing consistent thermal control, which helps stabilize reaction rates and prevent material degradation. Its energy-efficient components also lower operational costs. By maintaining precise temperatures, it enhances product quality and repeatability across diverse applications.