Low Temperature Circulating Chiller LLTC-T2012

Introduction

Low Temperature Circulating Chiller offers a Cooling Capacity of 14.8 kW at -20°C for optimal cooling. It incorporates safety alarms to help prevent system over-temperature or faults. Its programmable settings allow customized thermal control schedules. The quiet operation design supports use in noise-sensitive settings. Our chiller is used in precision cooling for chromatography systems, biotechnology labs, plasma reactors, fermentation processes, thermal cycling.

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 is used in precision cooling for chromatography systems, biotechnology labs, plasma reactors, fermentation processes, thermal cycling, microelectronics, forensic labs, petrochemical testing, and amplification.

Specifications

Temperature Range	-45°C to 20°C
Temperature Control	±0.5°C
Circulation Pump Max	3.5m³/h 2 bar
Refrigerant	R448A
Cooling Capacity at -20°C	14.8 kW
Cooling Capacity at -35°C	7.7 kW
Power	400V 50HZ / 460V 60HZ

Features

Low Vibration Operation

Built-in Fault Detection

Optimal Heat Dissipation

Automatic Temperature Regulation

High-Pressure Resistance

FAQs

1. Can the Low Temperature Circulating Chiller be used in noise-sensitive environments?

Yes, the chiller is designed for low vibration operation, making it suitable for use in noise-sensitive environments. Its quiet operation design ensures minimal noise disruption. This makes it ideal for applications in laboratories, research facilities, and other environments where noise control is critical. Whether in offices or areas with sensitive equipment, the chiller offers reliable cooling without compromising the acoustic environment.

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

The Low Temperature Circulating Chiller is ideal for precision cooling in applications like chromatography systems, biotechnology labs, plasma reactors, fermentation processes, thermal cycling, and more. It is also commonly used in microelectronics cooling, forensic labs, petrochemical testing, amplification, and other industries requiring stable and reliable low-temperature cooling. Its versatility makes it suitable for a wide range of scientific and industrial applications where precise temperature control is essential.

3. Does the Low Temperature Circulating Chiller have any safety features?

Yes, it includes built-in fault detection and safety alarms to prevent system over-temperature or faults. The chiller also has automatic temperature regulation to ensure consistent and safe operation. In case of any malfunction or abnormal conditions, the system alerts the user, allowing for quick intervention. These safety features help protect the equipment and the processes being cooled, ensuring reliability and peace of mind during operation.

4. How is the Low Temperature Circulating Chiller maintained?

Regular maintenance is required for optimal performance, including checking the refrigerant level, inspecting the circulation pump, and cleaning the condenser and evaporator. It is also important to regularly check the temperature control settings to ensure they are functioning properly. The chiller’s filters should be cleaned or replaced as needed to maintain air flow and cooling efficiency. Periodic inspection of electrical components, such as wiring and connections, ensures the chiller operates safely and effectively over time. Proper maintenance helps extend the life of the unit and maintains its cooling performance.

5. Can the Low Temperature Circulating Chiller be customized for specific cooling requirements?

Yes, the programmable settings of the Low Temperature Circulating Chiller allow customized temperature control schedules, which can be tailored to your specific cooling needs. This flexibility enables precise control over temperature fluctuations, making it ideal for processes that require different temperature profiles at various stages. Users can adjust parameters like cooling time, temperature set points, and operational cycles to match the unique demands of their applications. This customizability ensures that the chiller can efficiently support diverse scientific and industrial cooling tasks.