Low Temperature Circulating Chiller LLTC-T412

Introduction

Low Temperature Circulating Chiller a high-capacity circulation pump with 50L/min 2 bar. It features a plate heat exchanger for effective thermal transfer. Its feedback sensors monitor both inlet and outlet temperatures in real-time. The system includes built-in safety protections against pressure and overload. Our chiller is useful in pilot-scale production setups, where tight thermal control is essential during process scale-up, ensuring reliable performance.

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 ideal for pilot-scale production, providing precise thermal control during process scale-up, ensuring reliable performance in both laboratory and industrial chemical and biological applications.

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	50L/min 2 bar
Refrigerant	A/R407C
Heating Power	7.5 kW
Cooling Capacity at 10°C	12 kW
Power	AC380V 50HZ / AC460V 50HZ

Features

Multi-Voltage Compatibility

Steady Process Control

Industrial-Grade Performance

Advanced Heat Exchanger

Temperature Feedback Sensors

FAQs

1. What are the key features of the Low Temperature Circulating Chiller?

The chiller offers a high-capacity circulation pump, precise temperature control, real-time temperature feedback, and built-in safety features, making it ideal for various industrial and laboratory applications. It also incorporates a plate heat exchanger for efficient heat transfer. The chiller operates with environmentally friendly refrigerants, optimizing energy consumption. Additionally, its advanced control system allows for seamless integration with automated processes, ensuring reliable and consistent performance in critical applications.

2. How does the plate heat exchanger in the Low Temperature Circulating Chiller improve performance?

The plate heat exchanger enhances thermal efficiency by providing effective heat transfer, helping maintain stable temperatures in complex cooling and heating processes. Its compact design ensures optimal space utilization and easy integration into various systems. The efficient heat exchange minimizes energy consumption while maintaining consistent temperature control. This result in faster process cycles, improved process stability, and reduced operational costs.

3. Can the Low Temperature Circulating Chiller be used for both small and large-scale applications?

Yes, the chiller is designed to offer reliable performance in laboratory-scale and pilot-scale industrial applications, providing flexibility for various process sizes. Its adjustable temperature control and high-capacity circulation pump make it suitable for both small-scale research and larger-scale production. The chiller’s robust construction ensures long-term reliability, while its precise thermal control is ideal for processes requiring consistent performance. This versatility allows it to be used across different industries with diverse cooling and heating needs.

4. What is the maximum flow rate of the circulation pump in the Low Temperature Circulating Chiller?

The circulation pump has a maximum flow rate of 50L/min at 2 bar, ensuring efficient heat transfer and consistent cooling performance. This high flow rate supports quick and reliable cooling across a variety of processes, enhancing the overall performance of the chiller in both industrial and laboratory settings. Its robust flow capacity ensures optimal heat exchange even during demanding operations, improving process stability and reducing thermal variations.

5. How does the Low Temperature Circulating Chiller support consistency in chemical reactions?

By maintaining precise temperature control, the chiller ensures stable conditions for chemical reactions, promoting consistent results and minimizing variability during processes. This stability is crucial for ensuring the reproducibility of results, enhancing the efficiency of reactions, and preventing issues caused by temperature fluctuations. The chiller helps optimize the environment for controlled reactions, which is essential in both small-scale laboratory research and large-scale industrial production.