Low Temperature Recirculating Chillers LTRC-T2010

Introduction

Low Temperature Recirculating Chillers offers a –80°C to 40°C range, making it suitable for demanding cooling tasks. It includes a closed circulation system that preserves fluid quality over long durations. The built-in overflow protection safely manages excess liquid without manual handling. Our Ultra-Low Temperature Recirculating Chiller supports reactor cooling, material testing, and thermal simulation in research labs.

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

Low Temperature Recirculating Chillers supports cooling requirements for external equipment in research and industrial laboratories. This system maintains stable thermal conditions for processes like reactor cooling, material testing, and simulation of temperature variations.

Specifications

Temperature Range	–80°C to 40°C
Temperature Stability	±2°C
Cooling Method	Air cooling
Cooling Capacity at -40 °C	2000 W
Cooling Capacity at -60 °C	1400 W
Cooling Capacity at -80 °C	450 W
Refrigerant	R404A, R23
Rated Pump Power	1 bar
Rated Pump Flow Rate	30 L/min
Outer Circulation Interface Size	Rc 1/2
Reservoir Capacity	10 L
Protection Grade	IP20
Power Supply	3 to 380 V, 50 Hz
Power Consumption	4900 W
Dimensions (W×D×H)	645 × 1060 × 1320 mm
Net Weight	235 Kg
Gross Weight	281 Kg

Features

Wide-access maintenance panel

Shock-resistant caster wheels

Reinforced insulation barrier

Low-noise fan assembly

Tool-free filter access

FAQs

1. What makes the Low Temperature Recirculating Chiller effective for sensitive biological and pharmaceutical applications?

The Low Temperature Recirculating Chiller is designed to handle delicate temperature control demands essential in biotech and pharmaceutical environments. It supports stable conditions for enzyme reactions, protein crystallization, and vaccine component stabilization. unit’s insulated construction reduces thermal interference from external sources, ensuring consistent cold delivery. The non-reactive circulation pathways make it compatible with biological-grade fluids and lab-safe coolants. It also enables gentle ramp-down cooling needed for sensitive specimens. This combination is ideal for preventing thermal shock to fragile compounds. The system supports reliable operation in regulated environments such as cleanrooms and diagnostic labs.

2. How does the Low Temperature Recirculating Chiller minimize heat transfer fluid degradation over time?

The Low Temperature Recirculating Chiller is built with a fully closed circulation system that protects the heat transfer fluid from contamination. Its internal design prevents moisture ingress, reducing the risk of chemical breakdown inside the fluid chamber. Air exposure is minimized, which lowers oxidation, preserving fluid performance even over months of operation. chiller restricts thermal fluid evaporation by maintaining vacuum-sealed paths for recirculation. It’s particularly beneficial in applications that require long-term, low-maintenance cooling. The system remains stable even when the unit is operated for extensive durations. This extends fluid life and lowers replacement frequency.

3. Why is the Low Temperature Recirculating Chiller ideal for use with chemical reactors?

The Low Temperature Recirculating Chiller is built to directly interface with jacketed reactors and maintain stable control over exothermic and endothermic reactions. Its cooling system is engineered to rapidly bring down temperatures in sealed environments without risking chemical exposure. By connecting seamlessly to external reactors, it enables continuous cooling without disruption. unit accommodates rapid fluctuations in thermal demand caused by real-time reaction shifts. This is crucial in chemical synthesis, polymerization, and crystallization processes. It allows for dynamic temperature transitions without fluid pulsing or flow inconsistencies. This integration enhances reaction yield and safety.

4. How does the Low Temperature Recirculating Chiller support overflow protection during fluid refills?

The Low Temperature Recirculating Chiller includes an intelligent overflow discharge mechanism that activates if excess liquid is detected in the reservoir. This protects both the internal pump and surrounding surfaces from accidental spillage. The mechanism is passive and does not require electronic prompts, which makes it reliable in lab environments. It’s particularly helpful in shared setups where technicians might refill fluid tanks frequently. The chiller maintains circulation balance even when extra fluid is introduced suddenly. system prioritizes safe containment without interrupting ongoing cooling. This protects both the equipment and workspace from corrosion or fluid hazards.

5. How does the Low Temperature Recirculating Chiller help with temperature simulation in research environments?

The Low Temperature Recirculating Chiller is engineered for dynamic thermal adjustment, making it a valuable tool in simulating real-world temperature changes. It supports stepwise shifts across a broad range, allowing researchers to study material behaviour under cold stress. system enables long ramp-down or ramp-up experiments without manual input. The fluid recirculation remains uninterrupted, supporting test repeatability. Researchers in climate simulation, chemical aging, and material response can replicate cold cycle impacts easily. This makes the unit versatile across sectors like defense, aerospace, and synthetic testing. Its design supports programmable protocols without temperature overshoot.

6. Can the Low Temperature Recirculating Chiller be used in compact lab environments with airflow constraints?

The Low Temperature Recirculating Chiller features an air-cooled design that performs reliably even in moderate ventilation settings. It eliminates the need for separate water connections or plumbing, which is helpful in constrained labs. chiller vents heat from the top and rear, reducing the risk of internal overheating from nearby equipment. The cabinet is designed with airflow deflection to avoid hot air recycling. Even under multiple device operation, thermal buildup is managed effectively. Its vertical structure saves space while supporting full-volume operation. This design caters to labs with limited floor area and minimal ducting.